acir.hpp

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// === AUDIT STATUS ===
// internal:    { status: not started, auditors: [], date: YYYY-MM-DD }
// external_1:  { status: not started, auditors: [], date: YYYY-MM-DD }
// external_2:  { status: not started, auditors: [], date: YYYY-MM-DD }
// =====================
 
#pragma once
 
#include "barretenberg/serialize/msgpack_impl.hpp"
#include "bincode.hpp"
#include "serde.hpp"
 
namespace Acir {
struct Helpers {
    static std::map<std::string, msgpack::object const*> make_kvmap(msgpack::object const& o, std::string const& name)
    {
        if (o.type != msgpack::type::MAP) {
            std::cerr << o << std::endl;
            throw_or_abort("expected MAP for " + name);
        }
        std::map<std::string, msgpack::object const*> kvmap;
        for (uint32_t i = 0; i < o.via.map.size; ++i) {
            if (o.via.map.ptr[i].key.type != msgpack::type::STR) {
                std::cerr << o << std::endl;
                throw_or_abort("expected STR for keys of " + name);
            }
            kvmap.emplace(std::string(o.via.map.ptr[i].key.via.str.ptr, o.via.map.ptr[i].key.via.str.size),
                          &o.via.map.ptr[i].val);
        }
        return kvmap;
    }
 
    template <typename T>
    static void conv_fld_from_kvmap(std::map<std::string, msgpack::object const*> const& kvmap,
                                    std::string const& struct_name,
                                    std::string const& field_name,
                                    T& field,
                                    bool is_optional)
    {
        auto it = kvmap.find(field_name);
        if (it != kvmap.end()) {
            try {
                it->second->convert(field);
            } catch (const msgpack::type_error&) {
                std::cerr << *it->second << std::endl;
                throw_or_abort("error converting into field " + struct_name + "::" + field_name);
            }
        } else if (!is_optional) {
            throw_or_abort("missing field: " + struct_name + "::" + field_name);
        }
    }
 
    template <typename T>
    static void conv_fld_from_array(msgpack::object_array const& array,
                                    std::string const& struct_name,
                                    std::string const& field_name,
                                    T& field,
                                    uint32_t index)
    {
        if (index >= array.size) {
            throw_or_abort("index out of bounds: " + struct_name + "::" + field_name + " at " + std::to_string(index));
        }
        auto element = array.ptr[index];
        try {
            element.convert(field);
        } catch (const msgpack::type_error&) {
            std::cerr << element << std::endl;
            throw_or_abort("error converting into field " + struct_name + "::" + field_name);
        }
    }
};
} // namespace Acir
 
namespace Acir {
 
struct BinaryFieldOp {
 
    struct Add {
        friend bool operator==(const Add&, const Add&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Add bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const {}
        void msgpack_unpack(msgpack::object const& o) {}
    };
 
    struct Sub {
        friend bool operator==(const Sub&, const Sub&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Sub bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const {}
        void msgpack_unpack(msgpack::object const& o) {}
    };
 
    struct Mul {
        friend bool operator==(const Mul&, const Mul&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Mul bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const {}
        void msgpack_unpack(msgpack::object const& o) {}
    };
 
    struct Div {
        friend bool operator==(const Div&, const Div&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Div bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const {}
        void msgpack_unpack(msgpack::object const& o) {}
    };
 
    struct IntegerDiv {
        friend bool operator==(const IntegerDiv&, const IntegerDiv&);
        std::vector<uint8_t> bincodeSerialize() const;
        static IntegerDiv bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const {}
        void msgpack_unpack(msgpack::object const& o) {}
    };
 
    struct Equals {
        friend bool operator==(const Equals&, const Equals&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Equals bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const {}
        void msgpack_unpack(msgpack::object const& o) {}
    };
 
    struct LessThan {
        friend bool operator==(const LessThan&, const LessThan&);
        std::vector<uint8_t> bincodeSerialize() const;
        static LessThan bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const {}
        void msgpack_unpack(msgpack::object const& o) {}
    };
 
    struct LessThanEquals {
        friend bool operator==(const LessThanEquals&, const LessThanEquals&);
        std::vector<uint8_t> bincodeSerialize() const;
        static LessThanEquals bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const {}
        void msgpack_unpack(msgpack::object const& o) {}
    };
 
    std::variant<Add, Sub, Mul, Div, IntegerDiv, Equals, LessThan, LessThanEquals> value;
 
    friend bool operator==(const BinaryFieldOp&, const BinaryFieldOp&);
    std::vector<uint8_t> bincodeSerialize() const;
    static BinaryFieldOp bincodeDeserialize(std::vector<uint8_t>);
 
    void msgpack_pack(auto& packer) const
    {
        std::string tag;
        bool is_unit;
        switch (value.index()) {
 
        case 0:
            tag = "Add";
            is_unit = true;
            break;
        case 1:
            tag = "Sub";
            is_unit = true;
            break;
        case 2:
            tag = "Mul";
            is_unit = true;
            break;
        case 3:
            tag = "Div";
            is_unit = true;
            break;
        case 4:
            tag = "IntegerDiv";
            is_unit = true;
            break;
        case 5:
            tag = "Equals";
            is_unit = true;
            break;
        case 6:
            tag = "LessThan";
            is_unit = true;
            break;
        case 7:
            tag = "LessThanEquals";
            is_unit = true;
            break;
        default:
            throw_or_abort("unknown enum 'BinaryFieldOp' variant index: " + std::to_string(value.index()));
        }
        if (is_unit) {
            packer.pack(tag);
        } else {
            std::visit(
                [&packer, tag](const auto& arg) {
                    std::map<std::string, msgpack::object> data;
                    data[tag] = msgpack::object(arg);
                    packer.pack(data);
                },
                value);
        }
    }
 
    void msgpack_unpack(msgpack::object const& o)
    {
 
        if (o.type != msgpack::type::object_type::MAP && o.type != msgpack::type::object_type::STR) {
            std::cerr << o << std::endl;
            throw_or_abort("expected MAP or STR for enum 'BinaryFieldOp'; got type " + std::to_string(o.type));
        }
        if (o.type == msgpack::type::object_type::MAP && o.via.map.size != 1) {
            throw_or_abort("expected 1 entry for enum 'BinaryFieldOp'; got " + std::to_string(o.via.map.size));
        }
        std::string tag;
        try {
            if (o.type == msgpack::type::object_type::MAP) {
                o.via.map.ptr[0].key.convert(tag);
            } else {
                o.convert(tag);
            }
        } catch (const msgpack::type_error&) {
            std::cerr << o << std::endl;
            throw_or_abort("error converting tag to string for enum 'BinaryFieldOp'");
        }
        if (tag == "Add") {
            Add v;
            value = v;
        } else if (tag == "Sub") {
            Sub v;
            value = v;
        } else if (tag == "Mul") {
            Mul v;
            value = v;
        } else if (tag == "Div") {
            Div v;
            value = v;
        } else if (tag == "IntegerDiv") {
            IntegerDiv v;
            value = v;
        } else if (tag == "Equals") {
            Equals v;
            value = v;
        } else if (tag == "LessThan") {
            LessThan v;
            value = v;
        } else if (tag == "LessThanEquals") {
            LessThanEquals v;
            value = v;
        } else {
            std::cerr << o << std::endl;
            throw_or_abort("unknown 'BinaryFieldOp' enum variant: " + tag);
        }
    }
};
 
struct BinaryIntOp {
 
    struct Add {
        friend bool operator==(const Add&, const Add&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Add bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const {}
        void msgpack_unpack(msgpack::object const& o) {}
    };
 
    struct Sub {
        friend bool operator==(const Sub&, const Sub&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Sub bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const {}
        void msgpack_unpack(msgpack::object const& o) {}
    };
 
    struct Mul {
        friend bool operator==(const Mul&, const Mul&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Mul bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const {}
        void msgpack_unpack(msgpack::object const& o) {}
    };
 
    struct Div {
        friend bool operator==(const Div&, const Div&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Div bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const {}
        void msgpack_unpack(msgpack::object const& o) {}
    };
 
    struct Equals {
        friend bool operator==(const Equals&, const Equals&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Equals bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const {}
        void msgpack_unpack(msgpack::object const& o) {}
    };
 
    struct LessThan {
        friend bool operator==(const LessThan&, const LessThan&);
        std::vector<uint8_t> bincodeSerialize() const;
        static LessThan bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const {}
        void msgpack_unpack(msgpack::object const& o) {}
    };
 
    struct LessThanEquals {
        friend bool operator==(const LessThanEquals&, const LessThanEquals&);
        std::vector<uint8_t> bincodeSerialize() const;
        static LessThanEquals bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const {}
        void msgpack_unpack(msgpack::object const& o) {}
    };
 
    struct And {
        friend bool operator==(const And&, const And&);
        std::vector<uint8_t> bincodeSerialize() const;
        static And bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const {}
        void msgpack_unpack(msgpack::object const& o) {}
    };
 
    struct Or {
        friend bool operator==(const Or&, const Or&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Or bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const {}
        void msgpack_unpack(msgpack::object const& o) {}
    };
 
    struct Xor {
        friend bool operator==(const Xor&, const Xor&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Xor bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const {}
        void msgpack_unpack(msgpack::object const& o) {}
    };
 
    struct Shl {
        friend bool operator==(const Shl&, const Shl&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Shl bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const {}
        void msgpack_unpack(msgpack::object const& o) {}
    };
 
    struct Shr {
        friend bool operator==(const Shr&, const Shr&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Shr bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const {}
        void msgpack_unpack(msgpack::object const& o) {}
    };
 
    std::variant<Add, Sub, Mul, Div, Equals, LessThan, LessThanEquals, And, Or, Xor, Shl, Shr> value;
 
    friend bool operator==(const BinaryIntOp&, const BinaryIntOp&);
    std::vector<uint8_t> bincodeSerialize() const;
    static BinaryIntOp bincodeDeserialize(std::vector<uint8_t>);
 
    void msgpack_pack(auto& packer) const
    {
        std::string tag;
        bool is_unit;
        switch (value.index()) {
 
        case 0:
            tag = "Add";
            is_unit = true;
            break;
        case 1:
            tag = "Sub";
            is_unit = true;
            break;
        case 2:
            tag = "Mul";
            is_unit = true;
            break;
        case 3:
            tag = "Div";
            is_unit = true;
            break;
        case 4:
            tag = "Equals";
            is_unit = true;
            break;
        case 5:
            tag = "LessThan";
            is_unit = true;
            break;
        case 6:
            tag = "LessThanEquals";
            is_unit = true;
            break;
        case 7:
            tag = "And";
            is_unit = true;
            break;
        case 8:
            tag = "Or";
            is_unit = true;
            break;
        case 9:
            tag = "Xor";
            is_unit = true;
            break;
        case 10:
            tag = "Shl";
            is_unit = true;
            break;
        case 11:
            tag = "Shr";
            is_unit = true;
            break;
        default:
            throw_or_abort("unknown enum 'BinaryIntOp' variant index: " + std::to_string(value.index()));
        }
        if (is_unit) {
            packer.pack(tag);
        } else {
            std::visit(
                [&packer, tag](const auto& arg) {
                    std::map<std::string, msgpack::object> data;
                    data[tag] = msgpack::object(arg);
                    packer.pack(data);
                },
                value);
        }
    }
 
    void msgpack_unpack(msgpack::object const& o)
    {
 
        if (o.type != msgpack::type::object_type::MAP && o.type != msgpack::type::object_type::STR) {
            std::cerr << o << std::endl;
            throw_or_abort("expected MAP or STR for enum 'BinaryIntOp'; got type " + std::to_string(o.type));
        }
        if (o.type == msgpack::type::object_type::MAP && o.via.map.size != 1) {
            throw_or_abort("expected 1 entry for enum 'BinaryIntOp'; got " + std::to_string(o.via.map.size));
        }
        std::string tag;
        try {
            if (o.type == msgpack::type::object_type::MAP) {
                o.via.map.ptr[0].key.convert(tag);
            } else {
                o.convert(tag);
            }
        } catch (const msgpack::type_error&) {
            std::cerr << o << std::endl;
            throw_or_abort("error converting tag to string for enum 'BinaryIntOp'");
        }
        if (tag == "Add") {
            Add v;
            value = v;
        } else if (tag == "Sub") {
            Sub v;
            value = v;
        } else if (tag == "Mul") {
            Mul v;
            value = v;
        } else if (tag == "Div") {
            Div v;
            value = v;
        } else if (tag == "Equals") {
            Equals v;
            value = v;
        } else if (tag == "LessThan") {
            LessThan v;
            value = v;
        } else if (tag == "LessThanEquals") {
            LessThanEquals v;
            value = v;
        } else if (tag == "And") {
            And v;
            value = v;
        } else if (tag == "Or") {
            Or v;
            value = v;
        } else if (tag == "Xor") {
            Xor v;
            value = v;
        } else if (tag == "Shl") {
            Shl v;
            value = v;
        } else if (tag == "Shr") {
            Shr v;
            value = v;
        } else {
            std::cerr << o << std::endl;
            throw_or_abort("unknown 'BinaryIntOp' enum variant: " + tag);
        }
    }
};
 
struct IntegerBitSize {
 
    struct U1 {
        friend bool operator==(const U1&, const U1&);
        std::vector<uint8_t> bincodeSerialize() const;
        static U1 bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const {}
        void msgpack_unpack(msgpack::object const& o) {}
    };
 
    struct U8 {
        friend bool operator==(const U8&, const U8&);
        std::vector<uint8_t> bincodeSerialize() const;
        static U8 bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const {}
        void msgpack_unpack(msgpack::object const& o) {}
    };
 
    struct U16 {
        friend bool operator==(const U16&, const U16&);
        std::vector<uint8_t> bincodeSerialize() const;
        static U16 bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const {}
        void msgpack_unpack(msgpack::object const& o) {}
    };
 
    struct U32 {
        friend bool operator==(const U32&, const U32&);
        std::vector<uint8_t> bincodeSerialize() const;
        static U32 bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const {}
        void msgpack_unpack(msgpack::object const& o) {}
    };
 
    struct U64 {
        friend bool operator==(const U64&, const U64&);
        std::vector<uint8_t> bincodeSerialize() const;
        static U64 bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const {}
        void msgpack_unpack(msgpack::object const& o) {}
    };
 
    struct U128 {
        friend bool operator==(const U128&, const U128&);
        std::vector<uint8_t> bincodeSerialize() const;
        static U128 bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const {}
        void msgpack_unpack(msgpack::object const& o) {}
    };
 
    std::variant<U1, U8, U16, U32, U64, U128> value;
 
    friend bool operator==(const IntegerBitSize&, const IntegerBitSize&);
    std::vector<uint8_t> bincodeSerialize() const;
    static IntegerBitSize bincodeDeserialize(std::vector<uint8_t>);
 
    void msgpack_pack(auto& packer) const
    {
        std::string tag;
        bool is_unit;
        switch (value.index()) {
 
        case 0:
            tag = "U1";
            is_unit = true;
            break;
        case 1:
            tag = "U8";
            is_unit = true;
            break;
        case 2:
            tag = "U16";
            is_unit = true;
            break;
        case 3:
            tag = "U32";
            is_unit = true;
            break;
        case 4:
            tag = "U64";
            is_unit = true;
            break;
        case 5:
            tag = "U128";
            is_unit = true;
            break;
        default:
            throw_or_abort("unknown enum 'IntegerBitSize' variant index: " + std::to_string(value.index()));
        }
        if (is_unit) {
            packer.pack(tag);
        } else {
            std::visit(
                [&packer, tag](const auto& arg) {
                    std::map<std::string, msgpack::object> data;
                    data[tag] = msgpack::object(arg);
                    packer.pack(data);
                },
                value);
        }
    }
 
    void msgpack_unpack(msgpack::object const& o)
    {
 
        if (o.type != msgpack::type::object_type::MAP && o.type != msgpack::type::object_type::STR) {
            std::cerr << o << std::endl;
            throw_or_abort("expected MAP or STR for enum 'IntegerBitSize'; got type " + std::to_string(o.type));
        }
        if (o.type == msgpack::type::object_type::MAP && o.via.map.size != 1) {
            throw_or_abort("expected 1 entry for enum 'IntegerBitSize'; got " + std::to_string(o.via.map.size));
        }
        std::string tag;
        try {
            if (o.type == msgpack::type::object_type::MAP) {
                o.via.map.ptr[0].key.convert(tag);
            } else {
                o.convert(tag);
            }
        } catch (const msgpack::type_error&) {
            std::cerr << o << std::endl;
            throw_or_abort("error converting tag to string for enum 'IntegerBitSize'");
        }
        if (tag == "U1") {
            U1 v;
            value = v;
        } else if (tag == "U8") {
            U8 v;
            value = v;
        } else if (tag == "U16") {
            U16 v;
            value = v;
        } else if (tag == "U32") {
            U32 v;
            value = v;
        } else if (tag == "U64") {
            U64 v;
            value = v;
        } else if (tag == "U128") {
            U128 v;
            value = v;
        } else {
            std::cerr << o << std::endl;
            throw_or_abort("unknown 'IntegerBitSize' enum variant: " + tag);
        }
    }
};
 
struct BitSize {
 
    struct Field {
        friend bool operator==(const Field&, const Field&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Field bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const {}
        void msgpack_unpack(msgpack::object const& o) {}
    };
 
    struct Integer {
        Acir::IntegerBitSize value;
 
        friend bool operator==(const Integer&, const Integer&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Integer bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const { packer.pack(value); }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            try {
                o.convert(value);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into newtype 'Integer'");
            }
        }
    };
 
    std::variant<Field, Integer> value;
 
    friend bool operator==(const BitSize&, const BitSize&);
    std::vector<uint8_t> bincodeSerialize() const;
    static BitSize bincodeDeserialize(std::vector<uint8_t>);
 
    void msgpack_pack(auto& packer) const
    {
        std::string tag;
        bool is_unit;
        switch (value.index()) {
 
        case 0:
            tag = "Field";
            is_unit = true;
            break;
        case 1:
            tag = "Integer";
            is_unit = false;
            break;
        default:
            throw_or_abort("unknown enum 'BitSize' variant index: " + std::to_string(value.index()));
        }
        if (is_unit) {
            packer.pack(tag);
        } else {
            std::visit(
                [&packer, tag](const auto& arg) {
                    std::map<std::string, msgpack::object> data;
                    data[tag] = msgpack::object(arg);
                    packer.pack(data);
                },
                value);
        }
    }
 
    void msgpack_unpack(msgpack::object const& o)
    {
 
        if (o.type != msgpack::type::object_type::MAP && o.type != msgpack::type::object_type::STR) {
            std::cerr << o << std::endl;
            throw_or_abort("expected MAP or STR for enum 'BitSize'; got type " + std::to_string(o.type));
        }
        if (o.type == msgpack::type::object_type::MAP && o.via.map.size != 1) {
            throw_or_abort("expected 1 entry for enum 'BitSize'; got " + std::to_string(o.via.map.size));
        }
        std::string tag;
        try {
            if (o.type == msgpack::type::object_type::MAP) {
                o.via.map.ptr[0].key.convert(tag);
            } else {
                o.convert(tag);
            }
        } catch (const msgpack::type_error&) {
            std::cerr << o << std::endl;
            throw_or_abort("error converting tag to string for enum 'BitSize'");
        }
        if (tag == "Field") {
            Field v;
            value = v;
        } else if (tag == "Integer") {
            Integer v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BitSize::Integer'");
            }
 
            value = v;
        } else {
            std::cerr << o << std::endl;
            throw_or_abort("unknown 'BitSize' enum variant: " + tag);
        }
    }
};
 
struct MemoryAddress {
 
    struct Direct {
        uint64_t value;
 
        friend bool operator==(const Direct&, const Direct&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Direct bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const { packer.pack(value); }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            try {
                o.convert(value);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into newtype 'Direct'");
            }
        }
    };
 
    struct Relative {
        uint64_t value;
 
        friend bool operator==(const Relative&, const Relative&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Relative bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const { packer.pack(value); }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            try {
                o.convert(value);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into newtype 'Relative'");
            }
        }
    };
 
    std::variant<Direct, Relative> value;
 
    friend bool operator==(const MemoryAddress&, const MemoryAddress&);
    std::vector<uint8_t> bincodeSerialize() const;
    static MemoryAddress bincodeDeserialize(std::vector<uint8_t>);
 
    void msgpack_pack(auto& packer) const
    {
        std::string tag;
        bool is_unit;
        switch (value.index()) {
 
        case 0:
            tag = "Direct";
            is_unit = false;
            break;
        case 1:
            tag = "Relative";
            is_unit = false;
            break;
        default:
            throw_or_abort("unknown enum 'MemoryAddress' variant index: " + std::to_string(value.index()));
        }
        if (is_unit) {
            packer.pack(tag);
        } else {
            std::visit(
                [&packer, tag](const auto& arg) {
                    std::map<std::string, msgpack::object> data;
                    data[tag] = msgpack::object(arg);
                    packer.pack(data);
                },
                value);
        }
    }
 
    void msgpack_unpack(msgpack::object const& o)
    {
 
        if (o.type != msgpack::type::object_type::MAP && o.type != msgpack::type::object_type::STR) {
            std::cerr << o << std::endl;
            throw_or_abort("expected MAP or STR for enum 'MemoryAddress'; got type " + std::to_string(o.type));
        }
        if (o.type == msgpack::type::object_type::MAP && o.via.map.size != 1) {
            throw_or_abort("expected 1 entry for enum 'MemoryAddress'; got " + std::to_string(o.via.map.size));
        }
        std::string tag;
        try {
            if (o.type == msgpack::type::object_type::MAP) {
                o.via.map.ptr[0].key.convert(tag);
            } else {
                o.convert(tag);
            }
        } catch (const msgpack::type_error&) {
            std::cerr << o << std::endl;
            throw_or_abort("error converting tag to string for enum 'MemoryAddress'");
        }
        if (tag == "Direct") {
            Direct v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'MemoryAddress::Direct'");
            }
 
            value = v;
        } else if (tag == "Relative") {
            Relative v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'MemoryAddress::Relative'");
            }
 
            value = v;
        } else {
            std::cerr << o << std::endl;
            throw_or_abort("unknown 'MemoryAddress' enum variant: " + tag);
        }
    }
};
 
struct HeapArray {
    Acir::MemoryAddress pointer;
    uint64_t size;
 
    friend bool operator==(const HeapArray&, const HeapArray&);
    std::vector<uint8_t> bincodeSerialize() const;
    static HeapArray bincodeDeserialize(std::vector<uint8_t>);
 
    void msgpack_pack(auto& packer) const
    {
        packer.pack_map(2);
        packer.pack(std::make_pair("pointer", pointer));
        packer.pack(std::make_pair("size", size));
    }
 
    void msgpack_unpack(msgpack::object const& o)
    {
        std::string name = "HeapArray";
        if (o.type == msgpack::type::MAP) {
            auto kvmap = Helpers::make_kvmap(o, name);
            Helpers::conv_fld_from_kvmap(kvmap, name, "pointer", pointer, false);
            Helpers::conv_fld_from_kvmap(kvmap, name, "size", size, false);
        } else if (o.type == msgpack::type::ARRAY) {
            auto array = o.via.array;
            Helpers::conv_fld_from_array(array, name, "pointer", pointer, 0);
            Helpers::conv_fld_from_array(array, name, "size", size, 1);
        } else {
            throw_or_abort("expected MAP or ARRAY for " + name);
        }
    }
};
 
struct HeapVector {
    Acir::MemoryAddress pointer;
    Acir::MemoryAddress size;
 
    friend bool operator==(const HeapVector&, const HeapVector&);
    std::vector<uint8_t> bincodeSerialize() const;
    static HeapVector bincodeDeserialize(std::vector<uint8_t>);
 
    void msgpack_pack(auto& packer) const
    {
        packer.pack_map(2);
        packer.pack(std::make_pair("pointer", pointer));
        packer.pack(std::make_pair("size", size));
    }
 
    void msgpack_unpack(msgpack::object const& o)
    {
        std::string name = "HeapVector";
        if (o.type == msgpack::type::MAP) {
            auto kvmap = Helpers::make_kvmap(o, name);
            Helpers::conv_fld_from_kvmap(kvmap, name, "pointer", pointer, false);
            Helpers::conv_fld_from_kvmap(kvmap, name, "size", size, false);
        } else if (o.type == msgpack::type::ARRAY) {
            auto array = o.via.array;
            Helpers::conv_fld_from_array(array, name, "pointer", pointer, 0);
            Helpers::conv_fld_from_array(array, name, "size", size, 1);
        } else {
            throw_or_abort("expected MAP or ARRAY for " + name);
        }
    }
};
 
struct BlackBoxOp {
 
    struct AES128Encrypt {
        Acir::HeapVector inputs;
        Acir::HeapArray iv;
        Acir::HeapArray key;
        Acir::HeapVector outputs;
 
        friend bool operator==(const AES128Encrypt&, const AES128Encrypt&);
        std::vector<uint8_t> bincodeSerialize() const;
        static AES128Encrypt bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(4);
            packer.pack(std::make_pair("inputs", inputs));
            packer.pack(std::make_pair("iv", iv));
            packer.pack(std::make_pair("key", key));
            packer.pack(std::make_pair("outputs", outputs));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "AES128Encrypt";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "inputs", inputs, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "iv", iv, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "key", key, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "outputs", outputs, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "inputs", inputs, 0);
                Helpers::conv_fld_from_array(array, name, "iv", iv, 1);
                Helpers::conv_fld_from_array(array, name, "key", key, 2);
                Helpers::conv_fld_from_array(array, name, "outputs", outputs, 3);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct Blake2s {
        Acir::HeapVector message;
        Acir::HeapArray output;
 
        friend bool operator==(const Blake2s&, const Blake2s&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Blake2s bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(2);
            packer.pack(std::make_pair("message", message));
            packer.pack(std::make_pair("output", output));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "Blake2s";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "message", message, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "output", output, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "message", message, 0);
                Helpers::conv_fld_from_array(array, name, "output", output, 1);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct Blake3 {
        Acir::HeapVector message;
        Acir::HeapArray output;
 
        friend bool operator==(const Blake3&, const Blake3&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Blake3 bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(2);
            packer.pack(std::make_pair("message", message));
            packer.pack(std::make_pair("output", output));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "Blake3";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "message", message, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "output", output, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "message", message, 0);
                Helpers::conv_fld_from_array(array, name, "output", output, 1);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct Keccakf1600 {
        Acir::HeapArray input;
        Acir::HeapArray output;
 
        friend bool operator==(const Keccakf1600&, const Keccakf1600&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Keccakf1600 bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(2);
            packer.pack(std::make_pair("input", input));
            packer.pack(std::make_pair("output", output));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "Keccakf1600";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "input", input, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "output", output, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "input", input, 0);
                Helpers::conv_fld_from_array(array, name, "output", output, 1);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct EcdsaSecp256k1 {
        Acir::HeapVector hashed_msg;
        Acir::HeapArray public_key_x;
        Acir::HeapArray public_key_y;
        Acir::HeapArray signature;
        Acir::MemoryAddress result;
 
        friend bool operator==(const EcdsaSecp256k1&, const EcdsaSecp256k1&);
        std::vector<uint8_t> bincodeSerialize() const;
        static EcdsaSecp256k1 bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(5);
            packer.pack(std::make_pair("hashed_msg", hashed_msg));
            packer.pack(std::make_pair("public_key_x", public_key_x));
            packer.pack(std::make_pair("public_key_y", public_key_y));
            packer.pack(std::make_pair("signature", signature));
            packer.pack(std::make_pair("result", result));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "EcdsaSecp256k1";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "hashed_msg", hashed_msg, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "public_key_x", public_key_x, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "public_key_y", public_key_y, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "signature", signature, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "result", result, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "hashed_msg", hashed_msg, 0);
                Helpers::conv_fld_from_array(array, name, "public_key_x", public_key_x, 1);
                Helpers::conv_fld_from_array(array, name, "public_key_y", public_key_y, 2);
                Helpers::conv_fld_from_array(array, name, "signature", signature, 3);
                Helpers::conv_fld_from_array(array, name, "result", result, 4);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct EcdsaSecp256r1 {
        Acir::HeapVector hashed_msg;
        Acir::HeapArray public_key_x;
        Acir::HeapArray public_key_y;
        Acir::HeapArray signature;
        Acir::MemoryAddress result;
 
        friend bool operator==(const EcdsaSecp256r1&, const EcdsaSecp256r1&);
        std::vector<uint8_t> bincodeSerialize() const;
        static EcdsaSecp256r1 bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(5);
            packer.pack(std::make_pair("hashed_msg", hashed_msg));
            packer.pack(std::make_pair("public_key_x", public_key_x));
            packer.pack(std::make_pair("public_key_y", public_key_y));
            packer.pack(std::make_pair("signature", signature));
            packer.pack(std::make_pair("result", result));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "EcdsaSecp256r1";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "hashed_msg", hashed_msg, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "public_key_x", public_key_x, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "public_key_y", public_key_y, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "signature", signature, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "result", result, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "hashed_msg", hashed_msg, 0);
                Helpers::conv_fld_from_array(array, name, "public_key_x", public_key_x, 1);
                Helpers::conv_fld_from_array(array, name, "public_key_y", public_key_y, 2);
                Helpers::conv_fld_from_array(array, name, "signature", signature, 3);
                Helpers::conv_fld_from_array(array, name, "result", result, 4);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct MultiScalarMul {
        Acir::HeapVector points;
        Acir::HeapVector scalars;
        Acir::HeapArray outputs;
 
        friend bool operator==(const MultiScalarMul&, const MultiScalarMul&);
        std::vector<uint8_t> bincodeSerialize() const;
        static MultiScalarMul bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(3);
            packer.pack(std::make_pair("points", points));
            packer.pack(std::make_pair("scalars", scalars));
            packer.pack(std::make_pair("outputs", outputs));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "MultiScalarMul";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "points", points, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "scalars", scalars, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "outputs", outputs, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "points", points, 0);
                Helpers::conv_fld_from_array(array, name, "scalars", scalars, 1);
                Helpers::conv_fld_from_array(array, name, "outputs", outputs, 2);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct EmbeddedCurveAdd {
        Acir::MemoryAddress input1_x;
        Acir::MemoryAddress input1_y;
        Acir::MemoryAddress input1_infinite;
        Acir::MemoryAddress input2_x;
        Acir::MemoryAddress input2_y;
        Acir::MemoryAddress input2_infinite;
        Acir::HeapArray result;
 
        friend bool operator==(const EmbeddedCurveAdd&, const EmbeddedCurveAdd&);
        std::vector<uint8_t> bincodeSerialize() const;
        static EmbeddedCurveAdd bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(7);
            packer.pack(std::make_pair("input1_x", input1_x));
            packer.pack(std::make_pair("input1_y", input1_y));
            packer.pack(std::make_pair("input1_infinite", input1_infinite));
            packer.pack(std::make_pair("input2_x", input2_x));
            packer.pack(std::make_pair("input2_y", input2_y));
            packer.pack(std::make_pair("input2_infinite", input2_infinite));
            packer.pack(std::make_pair("result", result));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "EmbeddedCurveAdd";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "input1_x", input1_x, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "input1_y", input1_y, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "input1_infinite", input1_infinite, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "input2_x", input2_x, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "input2_y", input2_y, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "input2_infinite", input2_infinite, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "result", result, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "input1_x", input1_x, 0);
                Helpers::conv_fld_from_array(array, name, "input1_y", input1_y, 1);
                Helpers::conv_fld_from_array(array, name, "input1_infinite", input1_infinite, 2);
                Helpers::conv_fld_from_array(array, name, "input2_x", input2_x, 3);
                Helpers::conv_fld_from_array(array, name, "input2_y", input2_y, 4);
                Helpers::conv_fld_from_array(array, name, "input2_infinite", input2_infinite, 5);
                Helpers::conv_fld_from_array(array, name, "result", result, 6);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct Poseidon2Permutation {
        Acir::HeapVector message;
        Acir::HeapArray output;
 
        friend bool operator==(const Poseidon2Permutation&, const Poseidon2Permutation&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Poseidon2Permutation bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(2);
            packer.pack(std::make_pair("message", message));
            packer.pack(std::make_pair("output", output));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "Poseidon2Permutation";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "message", message, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "output", output, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "message", message, 0);
                Helpers::conv_fld_from_array(array, name, "output", output, 1);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct Sha256Compression {
        Acir::HeapArray input;
        Acir::HeapArray hash_values;
        Acir::HeapArray output;
 
        friend bool operator==(const Sha256Compression&, const Sha256Compression&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Sha256Compression bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(3);
            packer.pack(std::make_pair("input", input));
            packer.pack(std::make_pair("hash_values", hash_values));
            packer.pack(std::make_pair("output", output));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "Sha256Compression";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "input", input, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "hash_values", hash_values, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "output", output, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "input", input, 0);
                Helpers::conv_fld_from_array(array, name, "hash_values", hash_values, 1);
                Helpers::conv_fld_from_array(array, name, "output", output, 2);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct ToRadix {
        Acir::MemoryAddress input;
        Acir::MemoryAddress radix;
        Acir::MemoryAddress output_pointer;
        Acir::MemoryAddress num_limbs;
        Acir::MemoryAddress output_bits;
 
        friend bool operator==(const ToRadix&, const ToRadix&);
        std::vector<uint8_t> bincodeSerialize() const;
        static ToRadix bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(5);
            packer.pack(std::make_pair("input", input));
            packer.pack(std::make_pair("radix", radix));
            packer.pack(std::make_pair("output_pointer", output_pointer));
            packer.pack(std::make_pair("num_limbs", num_limbs));
            packer.pack(std::make_pair("output_bits", output_bits));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "ToRadix";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "input", input, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "radix", radix, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "output_pointer", output_pointer, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "num_limbs", num_limbs, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "output_bits", output_bits, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "input", input, 0);
                Helpers::conv_fld_from_array(array, name, "radix", radix, 1);
                Helpers::conv_fld_from_array(array, name, "output_pointer", output_pointer, 2);
                Helpers::conv_fld_from_array(array, name, "num_limbs", num_limbs, 3);
                Helpers::conv_fld_from_array(array, name, "output_bits", output_bits, 4);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    std::variant<AES128Encrypt,
                 Blake2s,
                 Blake3,
                 Keccakf1600,
                 EcdsaSecp256k1,
                 EcdsaSecp256r1,
                 MultiScalarMul,
                 EmbeddedCurveAdd,
                 Poseidon2Permutation,
                 Sha256Compression,
                 ToRadix>
        value;
 
    friend bool operator==(const BlackBoxOp&, const BlackBoxOp&);
    std::vector<uint8_t> bincodeSerialize() const;
    static BlackBoxOp bincodeDeserialize(std::vector<uint8_t>);
 
    void msgpack_pack(auto& packer) const
    {
        std::string tag;
        bool is_unit;
        switch (value.index()) {
 
        case 0:
            tag = "AES128Encrypt";
            is_unit = false;
            break;
        case 1:
            tag = "Blake2s";
            is_unit = false;
            break;
        case 2:
            tag = "Blake3";
            is_unit = false;
            break;
        case 3:
            tag = "Keccakf1600";
            is_unit = false;
            break;
        case 4:
            tag = "EcdsaSecp256k1";
            is_unit = false;
            break;
        case 5:
            tag = "EcdsaSecp256r1";
            is_unit = false;
            break;
        case 6:
            tag = "MultiScalarMul";
            is_unit = false;
            break;
        case 7:
            tag = "EmbeddedCurveAdd";
            is_unit = false;
            break;
        case 8:
            tag = "Poseidon2Permutation";
            is_unit = false;
            break;
        case 9:
            tag = "Sha256Compression";
            is_unit = false;
            break;
        case 10:
            tag = "ToRadix";
            is_unit = false;
            break;
        default:
            throw_or_abort("unknown enum 'BlackBoxOp' variant index: " + std::to_string(value.index()));
        }
        if (is_unit) {
            packer.pack(tag);
        } else {
            std::visit(
                [&packer, tag](const auto& arg) {
                    std::map<std::string, msgpack::object> data;
                    data[tag] = msgpack::object(arg);
                    packer.pack(data);
                },
                value);
        }
    }
 
    void msgpack_unpack(msgpack::object const& o)
    {
 
        if (o.type != msgpack::type::object_type::MAP && o.type != msgpack::type::object_type::STR) {
            std::cerr << o << std::endl;
            throw_or_abort("expected MAP or STR for enum 'BlackBoxOp'; got type " + std::to_string(o.type));
        }
        if (o.type == msgpack::type::object_type::MAP && o.via.map.size != 1) {
            throw_or_abort("expected 1 entry for enum 'BlackBoxOp'; got " + std::to_string(o.via.map.size));
        }
        std::string tag;
        try {
            if (o.type == msgpack::type::object_type::MAP) {
                o.via.map.ptr[0].key.convert(tag);
            } else {
                o.convert(tag);
            }
        } catch (const msgpack::type_error&) {
            std::cerr << o << std::endl;
            throw_or_abort("error converting tag to string for enum 'BlackBoxOp'");
        }
        if (tag == "AES128Encrypt") {
            AES128Encrypt v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BlackBoxOp::AES128Encrypt'");
            }
 
            value = v;
        } else if (tag == "Blake2s") {
            Blake2s v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BlackBoxOp::Blake2s'");
            }
 
            value = v;
        } else if (tag == "Blake3") {
            Blake3 v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BlackBoxOp::Blake3'");
            }
 
            value = v;
        } else if (tag == "Keccakf1600") {
            Keccakf1600 v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BlackBoxOp::Keccakf1600'");
            }
 
            value = v;
        } else if (tag == "EcdsaSecp256k1") {
            EcdsaSecp256k1 v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BlackBoxOp::EcdsaSecp256k1'");
            }
 
            value = v;
        } else if (tag == "EcdsaSecp256r1") {
            EcdsaSecp256r1 v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BlackBoxOp::EcdsaSecp256r1'");
            }
 
            value = v;
        } else if (tag == "MultiScalarMul") {
            MultiScalarMul v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BlackBoxOp::MultiScalarMul'");
            }
 
            value = v;
        } else if (tag == "EmbeddedCurveAdd") {
            EmbeddedCurveAdd v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BlackBoxOp::EmbeddedCurveAdd'");
            }
 
            value = v;
        } else if (tag == "Poseidon2Permutation") {
            Poseidon2Permutation v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BlackBoxOp::Poseidon2Permutation'");
            }
 
            value = v;
        } else if (tag == "Sha256Compression") {
            Sha256Compression v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BlackBoxOp::Sha256Compression'");
            }
 
            value = v;
        } else if (tag == "ToRadix") {
            ToRadix v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BlackBoxOp::ToRadix'");
            }
 
            value = v;
        } else {
            std::cerr << o << std::endl;
            throw_or_abort("unknown 'BlackBoxOp' enum variant: " + tag);
        }
    }
};
 
struct HeapValueType;
 
struct HeapValueType {
 
    struct Simple {
        Acir::BitSize value;
 
        friend bool operator==(const Simple&, const Simple&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Simple bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const { packer.pack(value); }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            try {
                o.convert(value);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into newtype 'Simple'");
            }
        }
    };
 
    struct Array {
        std::vector<Acir::HeapValueType> value_types;
        uint64_t size;
 
        friend bool operator==(const Array&, const Array&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Array bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(2);
            packer.pack(std::make_pair("value_types", value_types));
            packer.pack(std::make_pair("size", size));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "Array";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "value_types", value_types, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "size", size, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "value_types", value_types, 0);
                Helpers::conv_fld_from_array(array, name, "size", size, 1);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct Vector {
        std::vector<Acir::HeapValueType> value_types;
 
        friend bool operator==(const Vector&, const Vector&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Vector bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(1);
            packer.pack(std::make_pair("value_types", value_types));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "Vector";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "value_types", value_types, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "value_types", value_types, 0);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    std::variant<Simple, Array, Vector> value;
 
    friend bool operator==(const HeapValueType&, const HeapValueType&);
    std::vector<uint8_t> bincodeSerialize() const;
    static HeapValueType bincodeDeserialize(std::vector<uint8_t>);
 
    void msgpack_pack(auto& packer) const
    {
        std::string tag;
        bool is_unit;
        switch (value.index()) {
 
        case 0:
            tag = "Simple";
            is_unit = false;
            break;
        case 1:
            tag = "Array";
            is_unit = false;
            break;
        case 2:
            tag = "Vector";
            is_unit = false;
            break;
        default:
            throw_or_abort("unknown enum 'HeapValueType' variant index: " + std::to_string(value.index()));
        }
        if (is_unit) {
            packer.pack(tag);
        } else {
            std::visit(
                [&packer, tag](const auto& arg) {
                    std::map<std::string, msgpack::object> data;
                    data[tag] = msgpack::object(arg);
                    packer.pack(data);
                },
                value);
        }
    }
 
    void msgpack_unpack(msgpack::object const& o)
    {
 
        if (o.type != msgpack::type::object_type::MAP && o.type != msgpack::type::object_type::STR) {
            std::cerr << o << std::endl;
            throw_or_abort("expected MAP or STR for enum 'HeapValueType'; got type " + std::to_string(o.type));
        }
        if (o.type == msgpack::type::object_type::MAP && o.via.map.size != 1) {
            throw_or_abort("expected 1 entry for enum 'HeapValueType'; got " + std::to_string(o.via.map.size));
        }
        std::string tag;
        try {
            if (o.type == msgpack::type::object_type::MAP) {
                o.via.map.ptr[0].key.convert(tag);
            } else {
                o.convert(tag);
            }
        } catch (const msgpack::type_error&) {
            std::cerr << o << std::endl;
            throw_or_abort("error converting tag to string for enum 'HeapValueType'");
        }
        if (tag == "Simple") {
            Simple v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'HeapValueType::Simple'");
            }
 
            value = v;
        } else if (tag == "Array") {
            Array v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'HeapValueType::Array'");
            }
 
            value = v;
        } else if (tag == "Vector") {
            Vector v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'HeapValueType::Vector'");
            }
 
            value = v;
        } else {
            std::cerr << o << std::endl;
            throw_or_abort("unknown 'HeapValueType' enum variant: " + tag);
        }
    }
};
 
struct ValueOrArray {
 
    struct MemoryAddress {
        Acir::MemoryAddress value;
 
        friend bool operator==(const MemoryAddress&, const MemoryAddress&);
        std::vector<uint8_t> bincodeSerialize() const;
        static MemoryAddress bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const { packer.pack(value); }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            try {
                o.convert(value);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into newtype 'MemoryAddress'");
            }
        }
    };
 
    struct HeapArray {
        Acir::HeapArray value;
 
        friend bool operator==(const HeapArray&, const HeapArray&);
        std::vector<uint8_t> bincodeSerialize() const;
        static HeapArray bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const { packer.pack(value); }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            try {
                o.convert(value);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into newtype 'HeapArray'");
            }
        }
    };
 
    struct HeapVector {
        Acir::HeapVector value;
 
        friend bool operator==(const HeapVector&, const HeapVector&);
        std::vector<uint8_t> bincodeSerialize() const;
        static HeapVector bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const { packer.pack(value); }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            try {
                o.convert(value);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into newtype 'HeapVector'");
            }
        }
    };
 
    std::variant<MemoryAddress, HeapArray, HeapVector> value;
 
    friend bool operator==(const ValueOrArray&, const ValueOrArray&);
    std::vector<uint8_t> bincodeSerialize() const;
    static ValueOrArray bincodeDeserialize(std::vector<uint8_t>);
 
    void msgpack_pack(auto& packer) const
    {
        std::string tag;
        bool is_unit;
        switch (value.index()) {
 
        case 0:
            tag = "MemoryAddress";
            is_unit = false;
            break;
        case 1:
            tag = "HeapArray";
            is_unit = false;
            break;
        case 2:
            tag = "HeapVector";
            is_unit = false;
            break;
        default:
            throw_or_abort("unknown enum 'ValueOrArray' variant index: " + std::to_string(value.index()));
        }
        if (is_unit) {
            packer.pack(tag);
        } else {
            std::visit(
                [&packer, tag](const auto& arg) {
                    std::map<std::string, msgpack::object> data;
                    data[tag] = msgpack::object(arg);
                    packer.pack(data);
                },
                value);
        }
    }
 
    void msgpack_unpack(msgpack::object const& o)
    {
 
        if (o.type != msgpack::type::object_type::MAP && o.type != msgpack::type::object_type::STR) {
            std::cerr << o << std::endl;
            throw_or_abort("expected MAP or STR for enum 'ValueOrArray'; got type " + std::to_string(o.type));
        }
        if (o.type == msgpack::type::object_type::MAP && o.via.map.size != 1) {
            throw_or_abort("expected 1 entry for enum 'ValueOrArray'; got " + std::to_string(o.via.map.size));
        }
        std::string tag;
        try {
            if (o.type == msgpack::type::object_type::MAP) {
                o.via.map.ptr[0].key.convert(tag);
            } else {
                o.convert(tag);
            }
        } catch (const msgpack::type_error&) {
            std::cerr << o << std::endl;
            throw_or_abort("error converting tag to string for enum 'ValueOrArray'");
        }
        if (tag == "MemoryAddress") {
            MemoryAddress v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'ValueOrArray::MemoryAddress'");
            }
 
            value = v;
        } else if (tag == "HeapArray") {
            HeapArray v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'ValueOrArray::HeapArray'");
            }
 
            value = v;
        } else if (tag == "HeapVector") {
            HeapVector v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'ValueOrArray::HeapVector'");
            }
 
            value = v;
        } else {
            std::cerr << o << std::endl;
            throw_or_abort("unknown 'ValueOrArray' enum variant: " + tag);
        }
    }
};
 
struct BrilligOpcode {
 
    struct BinaryFieldOp {
        Acir::MemoryAddress destination;
        Acir::BinaryFieldOp op;
        Acir::MemoryAddress lhs;
        Acir::MemoryAddress rhs;
 
        friend bool operator==(const BinaryFieldOp&, const BinaryFieldOp&);
        std::vector<uint8_t> bincodeSerialize() const;
        static BinaryFieldOp bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(4);
            packer.pack(std::make_pair("destination", destination));
            packer.pack(std::make_pair("op", op));
            packer.pack(std::make_pair("lhs", lhs));
            packer.pack(std::make_pair("rhs", rhs));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "BinaryFieldOp";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "destination", destination, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "op", op, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "lhs", lhs, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "rhs", rhs, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "destination", destination, 0);
                Helpers::conv_fld_from_array(array, name, "op", op, 1);
                Helpers::conv_fld_from_array(array, name, "lhs", lhs, 2);
                Helpers::conv_fld_from_array(array, name, "rhs", rhs, 3);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct BinaryIntOp {
        Acir::MemoryAddress destination;
        Acir::BinaryIntOp op;
        Acir::IntegerBitSize bit_size;
        Acir::MemoryAddress lhs;
        Acir::MemoryAddress rhs;
 
        friend bool operator==(const BinaryIntOp&, const BinaryIntOp&);
        std::vector<uint8_t> bincodeSerialize() const;
        static BinaryIntOp bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(5);
            packer.pack(std::make_pair("destination", destination));
            packer.pack(std::make_pair("op", op));
            packer.pack(std::make_pair("bit_size", bit_size));
            packer.pack(std::make_pair("lhs", lhs));
            packer.pack(std::make_pair("rhs", rhs));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "BinaryIntOp";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "destination", destination, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "op", op, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "bit_size", bit_size, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "lhs", lhs, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "rhs", rhs, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "destination", destination, 0);
                Helpers::conv_fld_from_array(array, name, "op", op, 1);
                Helpers::conv_fld_from_array(array, name, "bit_size", bit_size, 2);
                Helpers::conv_fld_from_array(array, name, "lhs", lhs, 3);
                Helpers::conv_fld_from_array(array, name, "rhs", rhs, 4);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct Not {
        Acir::MemoryAddress destination;
        Acir::MemoryAddress source;
        Acir::IntegerBitSize bit_size;
 
        friend bool operator==(const Not&, const Not&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Not bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(3);
            packer.pack(std::make_pair("destination", destination));
            packer.pack(std::make_pair("source", source));
            packer.pack(std::make_pair("bit_size", bit_size));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "Not";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "destination", destination, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "source", source, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "bit_size", bit_size, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "destination", destination, 0);
                Helpers::conv_fld_from_array(array, name, "source", source, 1);
                Helpers::conv_fld_from_array(array, name, "bit_size", bit_size, 2);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct Cast {
        Acir::MemoryAddress destination;
        Acir::MemoryAddress source;
        Acir::BitSize bit_size;
 
        friend bool operator==(const Cast&, const Cast&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Cast bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(3);
            packer.pack(std::make_pair("destination", destination));
            packer.pack(std::make_pair("source", source));
            packer.pack(std::make_pair("bit_size", bit_size));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "Cast";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "destination", destination, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "source", source, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "bit_size", bit_size, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "destination", destination, 0);
                Helpers::conv_fld_from_array(array, name, "source", source, 1);
                Helpers::conv_fld_from_array(array, name, "bit_size", bit_size, 2);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct JumpIf {
        Acir::MemoryAddress condition;
        uint64_t location;
 
        friend bool operator==(const JumpIf&, const JumpIf&);
        std::vector<uint8_t> bincodeSerialize() const;
        static JumpIf bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(2);
            packer.pack(std::make_pair("condition", condition));
            packer.pack(std::make_pair("location", location));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "JumpIf";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "condition", condition, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "location", location, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "condition", condition, 0);
                Helpers::conv_fld_from_array(array, name, "location", location, 1);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct Jump {
        uint64_t location;
 
        friend bool operator==(const Jump&, const Jump&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Jump bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(1);
            packer.pack(std::make_pair("location", location));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "Jump";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "location", location, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "location", location, 0);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct CalldataCopy {
        Acir::MemoryAddress destination_address;
        Acir::MemoryAddress size_address;
        Acir::MemoryAddress offset_address;
 
        friend bool operator==(const CalldataCopy&, const CalldataCopy&);
        std::vector<uint8_t> bincodeSerialize() const;
        static CalldataCopy bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(3);
            packer.pack(std::make_pair("destination_address", destination_address));
            packer.pack(std::make_pair("size_address", size_address));
            packer.pack(std::make_pair("offset_address", offset_address));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "CalldataCopy";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "destination_address", destination_address, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "size_address", size_address, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "offset_address", offset_address, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "destination_address", destination_address, 0);
                Helpers::conv_fld_from_array(array, name, "size_address", size_address, 1);
                Helpers::conv_fld_from_array(array, name, "offset_address", offset_address, 2);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct Call {
        uint64_t location;
 
        friend bool operator==(const Call&, const Call&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Call bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(1);
            packer.pack(std::make_pair("location", location));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "Call";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "location", location, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "location", location, 0);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct Const {
        Acir::MemoryAddress destination;
        Acir::BitSize bit_size;
        std::vector<uint8_t> value;
 
        friend bool operator==(const Const&, const Const&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Const bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(3);
            packer.pack(std::make_pair("destination", destination));
            packer.pack(std::make_pair("bit_size", bit_size));
            packer.pack(std::make_pair("value", value));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "Const";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "destination", destination, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "bit_size", bit_size, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "value", value, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "destination", destination, 0);
                Helpers::conv_fld_from_array(array, name, "bit_size", bit_size, 1);
                Helpers::conv_fld_from_array(array, name, "value", value, 2);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct IndirectConst {
        Acir::MemoryAddress destination_pointer;
        Acir::BitSize bit_size;
        std::vector<uint8_t> value;
 
        friend bool operator==(const IndirectConst&, const IndirectConst&);
        std::vector<uint8_t> bincodeSerialize() const;
        static IndirectConst bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(3);
            packer.pack(std::make_pair("destination_pointer", destination_pointer));
            packer.pack(std::make_pair("bit_size", bit_size));
            packer.pack(std::make_pair("value", value));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "IndirectConst";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "destination_pointer", destination_pointer, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "bit_size", bit_size, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "value", value, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "destination_pointer", destination_pointer, 0);
                Helpers::conv_fld_from_array(array, name, "bit_size", bit_size, 1);
                Helpers::conv_fld_from_array(array, name, "value", value, 2);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct Return {
        friend bool operator==(const Return&, const Return&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Return bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const {}
        void msgpack_unpack(msgpack::object const& o) {}
    };
 
    struct ForeignCall {
        std::string function;
        std::vector<Acir::ValueOrArray> destinations;
        std::vector<Acir::HeapValueType> destination_value_types;
        std::vector<Acir::ValueOrArray> inputs;
        std::vector<Acir::HeapValueType> input_value_types;
 
        friend bool operator==(const ForeignCall&, const ForeignCall&);
        std::vector<uint8_t> bincodeSerialize() const;
        static ForeignCall bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(5);
            packer.pack(std::make_pair("function", function));
            packer.pack(std::make_pair("destinations", destinations));
            packer.pack(std::make_pair("destination_value_types", destination_value_types));
            packer.pack(std::make_pair("inputs", inputs));
            packer.pack(std::make_pair("input_value_types", input_value_types));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "ForeignCall";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "function", function, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "destinations", destinations, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "destination_value_types", destination_value_types, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "inputs", inputs, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "input_value_types", input_value_types, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "function", function, 0);
                Helpers::conv_fld_from_array(array, name, "destinations", destinations, 1);
                Helpers::conv_fld_from_array(array, name, "destination_value_types", destination_value_types, 2);
                Helpers::conv_fld_from_array(array, name, "inputs", inputs, 3);
                Helpers::conv_fld_from_array(array, name, "input_value_types", input_value_types, 4);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct Mov {
        Acir::MemoryAddress destination;
        Acir::MemoryAddress source;
 
        friend bool operator==(const Mov&, const Mov&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Mov bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(2);
            packer.pack(std::make_pair("destination", destination));
            packer.pack(std::make_pair("source", source));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "Mov";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "destination", destination, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "source", source, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "destination", destination, 0);
                Helpers::conv_fld_from_array(array, name, "source", source, 1);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct ConditionalMov {
        Acir::MemoryAddress destination;
        Acir::MemoryAddress source_a;
        Acir::MemoryAddress source_b;
        Acir::MemoryAddress condition;
 
        friend bool operator==(const ConditionalMov&, const ConditionalMov&);
        std::vector<uint8_t> bincodeSerialize() const;
        static ConditionalMov bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(4);
            packer.pack(std::make_pair("destination", destination));
            packer.pack(std::make_pair("source_a", source_a));
            packer.pack(std::make_pair("source_b", source_b));
            packer.pack(std::make_pair("condition", condition));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "ConditionalMov";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "destination", destination, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "source_a", source_a, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "source_b", source_b, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "condition", condition, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "destination", destination, 0);
                Helpers::conv_fld_from_array(array, name, "source_a", source_a, 1);
                Helpers::conv_fld_from_array(array, name, "source_b", source_b, 2);
                Helpers::conv_fld_from_array(array, name, "condition", condition, 3);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct Load {
        Acir::MemoryAddress destination;
        Acir::MemoryAddress source_pointer;
 
        friend bool operator==(const Load&, const Load&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Load bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(2);
            packer.pack(std::make_pair("destination", destination));
            packer.pack(std::make_pair("source_pointer", source_pointer));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "Load";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "destination", destination, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "source_pointer", source_pointer, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "destination", destination, 0);
                Helpers::conv_fld_from_array(array, name, "source_pointer", source_pointer, 1);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct Store {
        Acir::MemoryAddress destination_pointer;
        Acir::MemoryAddress source;
 
        friend bool operator==(const Store&, const Store&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Store bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(2);
            packer.pack(std::make_pair("destination_pointer", destination_pointer));
            packer.pack(std::make_pair("source", source));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "Store";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "destination_pointer", destination_pointer, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "source", source, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "destination_pointer", destination_pointer, 0);
                Helpers::conv_fld_from_array(array, name, "source", source, 1);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct BlackBox {
        Acir::BlackBoxOp value;
 
        friend bool operator==(const BlackBox&, const BlackBox&);
        std::vector<uint8_t> bincodeSerialize() const;
        static BlackBox bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const { packer.pack(value); }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            try {
                o.convert(value);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into newtype 'BlackBox'");
            }
        }
    };
 
    struct Trap {
        Acir::HeapVector revert_data;
 
        friend bool operator==(const Trap&, const Trap&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Trap bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(1);
            packer.pack(std::make_pair("revert_data", revert_data));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "Trap";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "revert_data", revert_data, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "revert_data", revert_data, 0);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct Stop {
        Acir::HeapVector return_data;
 
        friend bool operator==(const Stop&, const Stop&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Stop bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(1);
            packer.pack(std::make_pair("return_data", return_data));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "Stop";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "return_data", return_data, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "return_data", return_data, 0);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    std::variant<BinaryFieldOp,
                 BinaryIntOp,
                 Not,
                 Cast,
                 JumpIf,
                 Jump,
                 CalldataCopy,
                 Call,
                 Const,
                 IndirectConst,
                 Return,
                 ForeignCall,
                 Mov,
                 ConditionalMov,
                 Load,
                 Store,
                 BlackBox,
                 Trap,
                 Stop>
        value;
 
    friend bool operator==(const BrilligOpcode&, const BrilligOpcode&);
    std::vector<uint8_t> bincodeSerialize() const;
    static BrilligOpcode bincodeDeserialize(std::vector<uint8_t>);
 
    void msgpack_pack(auto& packer) const
    {
        std::string tag;
        bool is_unit;
        switch (value.index()) {
 
        case 0:
            tag = "BinaryFieldOp";
            is_unit = false;
            break;
        case 1:
            tag = "BinaryIntOp";
            is_unit = false;
            break;
        case 2:
            tag = "Not";
            is_unit = false;
            break;
        case 3:
            tag = "Cast";
            is_unit = false;
            break;
        case 4:
            tag = "JumpIf";
            is_unit = false;
            break;
        case 5:
            tag = "Jump";
            is_unit = false;
            break;
        case 6:
            tag = "CalldataCopy";
            is_unit = false;
            break;
        case 7:
            tag = "Call";
            is_unit = false;
            break;
        case 8:
            tag = "Const";
            is_unit = false;
            break;
        case 9:
            tag = "IndirectConst";
            is_unit = false;
            break;
        case 10:
            tag = "Return";
            is_unit = true;
            break;
        case 11:
            tag = "ForeignCall";
            is_unit = false;
            break;
        case 12:
            tag = "Mov";
            is_unit = false;
            break;
        case 13:
            tag = "ConditionalMov";
            is_unit = false;
            break;
        case 14:
            tag = "Load";
            is_unit = false;
            break;
        case 15:
            tag = "Store";
            is_unit = false;
            break;
        case 16:
            tag = "BlackBox";
            is_unit = false;
            break;
        case 17:
            tag = "Trap";
            is_unit = false;
            break;
        case 18:
            tag = "Stop";
            is_unit = false;
            break;
        default:
            throw_or_abort("unknown enum 'BrilligOpcode' variant index: " + std::to_string(value.index()));
        }
        if (is_unit) {
            packer.pack(tag);
        } else {
            std::visit(
                [&packer, tag](const auto& arg) {
                    std::map<std::string, msgpack::object> data;
                    data[tag] = msgpack::object(arg);
                    packer.pack(data);
                },
                value);
        }
    }
 
    void msgpack_unpack(msgpack::object const& o)
    {
 
        if (o.type != msgpack::type::object_type::MAP && o.type != msgpack::type::object_type::STR) {
            std::cerr << o << std::endl;
            throw_or_abort("expected MAP or STR for enum 'BrilligOpcode'; got type " + std::to_string(o.type));
        }
        if (o.type == msgpack::type::object_type::MAP && o.via.map.size != 1) {
            throw_or_abort("expected 1 entry for enum 'BrilligOpcode'; got " + std::to_string(o.via.map.size));
        }
        std::string tag;
        try {
            if (o.type == msgpack::type::object_type::MAP) {
                o.via.map.ptr[0].key.convert(tag);
            } else {
                o.convert(tag);
            }
        } catch (const msgpack::type_error&) {
            std::cerr << o << std::endl;
            throw_or_abort("error converting tag to string for enum 'BrilligOpcode'");
        }
        if (tag == "BinaryFieldOp") {
            BinaryFieldOp v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BrilligOpcode::BinaryFieldOp'");
            }
 
            value = v;
        } else if (tag == "BinaryIntOp") {
            BinaryIntOp v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BrilligOpcode::BinaryIntOp'");
            }
 
            value = v;
        } else if (tag == "Not") {
            Not v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BrilligOpcode::Not'");
            }
 
            value = v;
        } else if (tag == "Cast") {
            Cast v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BrilligOpcode::Cast'");
            }
 
            value = v;
        } else if (tag == "JumpIf") {
            JumpIf v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BrilligOpcode::JumpIf'");
            }
 
            value = v;
        } else if (tag == "Jump") {
            Jump v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BrilligOpcode::Jump'");
            }
 
            value = v;
        } else if (tag == "CalldataCopy") {
            CalldataCopy v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BrilligOpcode::CalldataCopy'");
            }
 
            value = v;
        } else if (tag == "Call") {
            Call v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BrilligOpcode::Call'");
            }
 
            value = v;
        } else if (tag == "Const") {
            Const v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BrilligOpcode::Const'");
            }
 
            value = v;
        } else if (tag == "IndirectConst") {
            IndirectConst v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BrilligOpcode::IndirectConst'");
            }
 
            value = v;
        } else if (tag == "Return") {
            Return v;
            value = v;
        } else if (tag == "ForeignCall") {
            ForeignCall v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BrilligOpcode::ForeignCall'");
            }
 
            value = v;
        } else if (tag == "Mov") {
            Mov v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BrilligOpcode::Mov'");
            }
 
            value = v;
        } else if (tag == "ConditionalMov") {
            ConditionalMov v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BrilligOpcode::ConditionalMov'");
            }
 
            value = v;
        } else if (tag == "Load") {
            Load v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BrilligOpcode::Load'");
            }
 
            value = v;
        } else if (tag == "Store") {
            Store v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BrilligOpcode::Store'");
            }
 
            value = v;
        } else if (tag == "BlackBox") {
            BlackBox v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BrilligOpcode::BlackBox'");
            }
 
            value = v;
        } else if (tag == "Trap") {
            Trap v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BrilligOpcode::Trap'");
            }
 
            value = v;
        } else if (tag == "Stop") {
            Stop v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BrilligOpcode::Stop'");
            }
 
            value = v;
        } else {
            std::cerr << o << std::endl;
            throw_or_abort("unknown 'BrilligOpcode' enum variant: " + tag);
        }
    }
};
 
struct Witness {
    uint32_t value;
 
    friend bool operator==(const Witness&, const Witness&);
    std::vector<uint8_t> bincodeSerialize() const;
    static Witness bincodeDeserialize(std::vector<uint8_t>);
 
    void msgpack_pack(auto& packer) const { packer.pack(value); }
 
    void msgpack_unpack(msgpack::object const& o)
    {
        try {
            o.convert(value);
        } catch (const msgpack::type_error&) {
            std::cerr << o << std::endl;
            throw_or_abort("error converting into newtype 'Witness'");
        }
    }
};
 
struct FunctionInput {
 
    struct Constant {
        std::vector<uint8_t> value;
 
        friend bool operator==(const Constant&, const Constant&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Constant bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const { packer.pack(value); }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            try {
                o.convert(value);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into newtype 'Constant'");
            }
        }
    };
 
    struct Witness {
        Acir::Witness value;
 
        friend bool operator==(const Witness&, const Witness&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Witness bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const { packer.pack(value); }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            try {
                o.convert(value);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into newtype 'Witness'");
            }
        }
    };
 
    std::variant<Constant, Witness> value;
 
    friend bool operator==(const FunctionInput&, const FunctionInput&);
    std::vector<uint8_t> bincodeSerialize() const;
    static FunctionInput bincodeDeserialize(std::vector<uint8_t>);
 
    void msgpack_pack(auto& packer) const
    {
        std::string tag;
        bool is_unit;
        switch (value.index()) {
 
        case 0:
            tag = "Constant";
            is_unit = false;
            break;
        case 1:
            tag = "Witness";
            is_unit = false;
            break;
        default:
            throw_or_abort("unknown enum 'FunctionInput' variant index: " + std::to_string(value.index()));
        }
        if (is_unit) {
            packer.pack(tag);
        } else {
            std::visit(
                [&packer, tag](const auto& arg) {
                    std::map<std::string, msgpack::object> data;
                    data[tag] = msgpack::object(arg);
                    packer.pack(data);
                },
                value);
        }
    }
 
    void msgpack_unpack(msgpack::object const& o)
    {
 
        if (o.type != msgpack::type::object_type::MAP && o.type != msgpack::type::object_type::STR) {
            std::cerr << o << std::endl;
            throw_or_abort("expected MAP or STR for enum 'FunctionInput'; got type " + std::to_string(o.type));
        }
        if (o.type == msgpack::type::object_type::MAP && o.via.map.size != 1) {
            throw_or_abort("expected 1 entry for enum 'FunctionInput'; got " + std::to_string(o.via.map.size));
        }
        std::string tag;
        try {
            if (o.type == msgpack::type::object_type::MAP) {
                o.via.map.ptr[0].key.convert(tag);
            } else {
                o.convert(tag);
            }
        } catch (const msgpack::type_error&) {
            std::cerr << o << std::endl;
            throw_or_abort("error converting tag to string for enum 'FunctionInput'");
        }
        if (tag == "Constant") {
            Constant v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'FunctionInput::Constant'");
            }
 
            value = v;
        } else if (tag == "Witness") {
            Witness v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'FunctionInput::Witness'");
            }
 
            value = v;
        } else {
            std::cerr << o << std::endl;
            throw_or_abort("unknown 'FunctionInput' enum variant: " + tag);
        }
    }
};
 
struct BlackBoxFuncCall {
 
    struct AES128Encrypt {
        std::vector<Acir::FunctionInput> inputs;
        std::shared_ptr<std::array<Acir::FunctionInput, 16>> iv;
        std::shared_ptr<std::array<Acir::FunctionInput, 16>> key;
        std::vector<Acir::Witness> outputs;
 
        friend bool operator==(const AES128Encrypt&, const AES128Encrypt&);
        std::vector<uint8_t> bincodeSerialize() const;
        static AES128Encrypt bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(4);
            packer.pack(std::make_pair("inputs", inputs));
            packer.pack(std::make_pair("iv", iv));
            packer.pack(std::make_pair("key", key));
            packer.pack(std::make_pair("outputs", outputs));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "AES128Encrypt";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "inputs", inputs, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "iv", iv, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "key", key, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "outputs", outputs, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "inputs", inputs, 0);
                Helpers::conv_fld_from_array(array, name, "iv", iv, 1);
                Helpers::conv_fld_from_array(array, name, "key", key, 2);
                Helpers::conv_fld_from_array(array, name, "outputs", outputs, 3);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct AND {
        Acir::FunctionInput lhs;
        Acir::FunctionInput rhs;
        uint32_t num_bits;
        Acir::Witness output;
 
        friend bool operator==(const AND&, const AND&);
        std::vector<uint8_t> bincodeSerialize() const;
        static AND bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(4);
            packer.pack(std::make_pair("lhs", lhs));
            packer.pack(std::make_pair("rhs", rhs));
            packer.pack(std::make_pair("num_bits", num_bits));
            packer.pack(std::make_pair("output", output));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "AND";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "lhs", lhs, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "rhs", rhs, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "num_bits", num_bits, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "output", output, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "lhs", lhs, 0);
                Helpers::conv_fld_from_array(array, name, "rhs", rhs, 1);
                Helpers::conv_fld_from_array(array, name, "num_bits", num_bits, 2);
                Helpers::conv_fld_from_array(array, name, "output", output, 3);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct XOR {
        Acir::FunctionInput lhs;
        Acir::FunctionInput rhs;
        uint32_t num_bits;
        Acir::Witness output;
 
        friend bool operator==(const XOR&, const XOR&);
        std::vector<uint8_t> bincodeSerialize() const;
        static XOR bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(4);
            packer.pack(std::make_pair("lhs", lhs));
            packer.pack(std::make_pair("rhs", rhs));
            packer.pack(std::make_pair("num_bits", num_bits));
            packer.pack(std::make_pair("output", output));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "XOR";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "lhs", lhs, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "rhs", rhs, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "num_bits", num_bits, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "output", output, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "lhs", lhs, 0);
                Helpers::conv_fld_from_array(array, name, "rhs", rhs, 1);
                Helpers::conv_fld_from_array(array, name, "num_bits", num_bits, 2);
                Helpers::conv_fld_from_array(array, name, "output", output, 3);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct RANGE {
        Acir::FunctionInput input;
        uint32_t num_bits;
 
        friend bool operator==(const RANGE&, const RANGE&);
        std::vector<uint8_t> bincodeSerialize() const;
        static RANGE bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(2);
            packer.pack(std::make_pair("input", input));
            packer.pack(std::make_pair("num_bits", num_bits));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "RANGE";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "input", input, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "num_bits", num_bits, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "input", input, 0);
                Helpers::conv_fld_from_array(array, name, "num_bits", num_bits, 1);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct Blake2s {
        std::vector<Acir::FunctionInput> inputs;
        std::shared_ptr<std::array<Acir::Witness, 32>> outputs;
 
        friend bool operator==(const Blake2s&, const Blake2s&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Blake2s bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(2);
            packer.pack(std::make_pair("inputs", inputs));
            packer.pack(std::make_pair("outputs", outputs));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "Blake2s";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "inputs", inputs, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "outputs", outputs, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "inputs", inputs, 0);
                Helpers::conv_fld_from_array(array, name, "outputs", outputs, 1);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct Blake3 {
        std::vector<Acir::FunctionInput> inputs;
        std::shared_ptr<std::array<Acir::Witness, 32>> outputs;
 
        friend bool operator==(const Blake3&, const Blake3&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Blake3 bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(2);
            packer.pack(std::make_pair("inputs", inputs));
            packer.pack(std::make_pair("outputs", outputs));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "Blake3";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "inputs", inputs, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "outputs", outputs, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "inputs", inputs, 0);
                Helpers::conv_fld_from_array(array, name, "outputs", outputs, 1);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct EcdsaSecp256k1 {
        std::shared_ptr<std::array<Acir::FunctionInput, 32>> public_key_x;
        std::shared_ptr<std::array<Acir::FunctionInput, 32>> public_key_y;
        std::shared_ptr<std::array<Acir::FunctionInput, 64>> signature;
        std::shared_ptr<std::array<Acir::FunctionInput, 32>> hashed_message;
        Acir::FunctionInput predicate;
        Acir::Witness output;
 
        friend bool operator==(const EcdsaSecp256k1&, const EcdsaSecp256k1&);
        std::vector<uint8_t> bincodeSerialize() const;
        static EcdsaSecp256k1 bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(6);
            packer.pack(std::make_pair("public_key_x", public_key_x));
            packer.pack(std::make_pair("public_key_y", public_key_y));
            packer.pack(std::make_pair("signature", signature));
            packer.pack(std::make_pair("hashed_message", hashed_message));
            packer.pack(std::make_pair("predicate", predicate));
            packer.pack(std::make_pair("output", output));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "EcdsaSecp256k1";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "public_key_x", public_key_x, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "public_key_y", public_key_y, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "signature", signature, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "hashed_message", hashed_message, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "predicate", predicate, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "output", output, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "public_key_x", public_key_x, 0);
                Helpers::conv_fld_from_array(array, name, "public_key_y", public_key_y, 1);
                Helpers::conv_fld_from_array(array, name, "signature", signature, 2);
                Helpers::conv_fld_from_array(array, name, "hashed_message", hashed_message, 3);
                Helpers::conv_fld_from_array(array, name, "predicate", predicate, 4);
                Helpers::conv_fld_from_array(array, name, "output", output, 5);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct EcdsaSecp256r1 {
        std::shared_ptr<std::array<Acir::FunctionInput, 32>> public_key_x;
        std::shared_ptr<std::array<Acir::FunctionInput, 32>> public_key_y;
        std::shared_ptr<std::array<Acir::FunctionInput, 64>> signature;
        std::shared_ptr<std::array<Acir::FunctionInput, 32>> hashed_message;
        Acir::FunctionInput predicate;
        Acir::Witness output;
 
        friend bool operator==(const EcdsaSecp256r1&, const EcdsaSecp256r1&);
        std::vector<uint8_t> bincodeSerialize() const;
        static EcdsaSecp256r1 bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(6);
            packer.pack(std::make_pair("public_key_x", public_key_x));
            packer.pack(std::make_pair("public_key_y", public_key_y));
            packer.pack(std::make_pair("signature", signature));
            packer.pack(std::make_pair("hashed_message", hashed_message));
            packer.pack(std::make_pair("predicate", predicate));
            packer.pack(std::make_pair("output", output));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "EcdsaSecp256r1";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "public_key_x", public_key_x, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "public_key_y", public_key_y, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "signature", signature, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "hashed_message", hashed_message, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "predicate", predicate, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "output", output, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "public_key_x", public_key_x, 0);
                Helpers::conv_fld_from_array(array, name, "public_key_y", public_key_y, 1);
                Helpers::conv_fld_from_array(array, name, "signature", signature, 2);
                Helpers::conv_fld_from_array(array, name, "hashed_message", hashed_message, 3);
                Helpers::conv_fld_from_array(array, name, "predicate", predicate, 4);
                Helpers::conv_fld_from_array(array, name, "output", output, 5);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct MultiScalarMul {
        std::vector<Acir::FunctionInput> points;
        std::vector<Acir::FunctionInput> scalars;
        Acir::FunctionInput predicate;
        std::shared_ptr<std::array<Acir::Witness, 3>> outputs;
 
        friend bool operator==(const MultiScalarMul&, const MultiScalarMul&);
        std::vector<uint8_t> bincodeSerialize() const;
        static MultiScalarMul bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(4);
            packer.pack(std::make_pair("points", points));
            packer.pack(std::make_pair("scalars", scalars));
            packer.pack(std::make_pair("predicate", predicate));
            packer.pack(std::make_pair("outputs", outputs));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "MultiScalarMul";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "points", points, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "scalars", scalars, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "predicate", predicate, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "outputs", outputs, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "points", points, 0);
                Helpers::conv_fld_from_array(array, name, "scalars", scalars, 1);
                Helpers::conv_fld_from_array(array, name, "predicate", predicate, 2);
                Helpers::conv_fld_from_array(array, name, "outputs", outputs, 3);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct EmbeddedCurveAdd {
        std::shared_ptr<std::array<Acir::FunctionInput, 3>> input1;
        std::shared_ptr<std::array<Acir::FunctionInput, 3>> input2;
        Acir::FunctionInput predicate;
        std::shared_ptr<std::array<Acir::Witness, 3>> outputs;
 
        friend bool operator==(const EmbeddedCurveAdd&, const EmbeddedCurveAdd&);
        std::vector<uint8_t> bincodeSerialize() const;
        static EmbeddedCurveAdd bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(4);
            packer.pack(std::make_pair("input1", input1));
            packer.pack(std::make_pair("input2", input2));
            packer.pack(std::make_pair("predicate", predicate));
            packer.pack(std::make_pair("outputs", outputs));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "EmbeddedCurveAdd";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "input1", input1, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "input2", input2, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "predicate", predicate, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "outputs", outputs, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "input1", input1, 0);
                Helpers::conv_fld_from_array(array, name, "input2", input2, 1);
                Helpers::conv_fld_from_array(array, name, "predicate", predicate, 2);
                Helpers::conv_fld_from_array(array, name, "outputs", outputs, 3);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct Keccakf1600 {
        std::shared_ptr<std::array<Acir::FunctionInput, 25>> inputs;
        std::shared_ptr<std::array<Acir::Witness, 25>> outputs;
 
        friend bool operator==(const Keccakf1600&, const Keccakf1600&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Keccakf1600 bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(2);
            packer.pack(std::make_pair("inputs", inputs));
            packer.pack(std::make_pair("outputs", outputs));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "Keccakf1600";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "inputs", inputs, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "outputs", outputs, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "inputs", inputs, 0);
                Helpers::conv_fld_from_array(array, name, "outputs", outputs, 1);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct RecursiveAggregation {
        std::vector<Acir::FunctionInput> verification_key;
        std::vector<Acir::FunctionInput> proof;
        std::vector<Acir::FunctionInput> public_inputs;
        Acir::FunctionInput key_hash;
        uint32_t proof_type;
        Acir::FunctionInput predicate;
 
        friend bool operator==(const RecursiveAggregation&, const RecursiveAggregation&);
        std::vector<uint8_t> bincodeSerialize() const;
        static RecursiveAggregation bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(6);
            packer.pack(std::make_pair("verification_key", verification_key));
            packer.pack(std::make_pair("proof", proof));
            packer.pack(std::make_pair("public_inputs", public_inputs));
            packer.pack(std::make_pair("key_hash", key_hash));
            packer.pack(std::make_pair("proof_type", proof_type));
            packer.pack(std::make_pair("predicate", predicate));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "RecursiveAggregation";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "verification_key", verification_key, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "proof", proof, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "public_inputs", public_inputs, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "key_hash", key_hash, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "proof_type", proof_type, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "predicate", predicate, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "verification_key", verification_key, 0);
                Helpers::conv_fld_from_array(array, name, "proof", proof, 1);
                Helpers::conv_fld_from_array(array, name, "public_inputs", public_inputs, 2);
                Helpers::conv_fld_from_array(array, name, "key_hash", key_hash, 3);
                Helpers::conv_fld_from_array(array, name, "proof_type", proof_type, 4);
                Helpers::conv_fld_from_array(array, name, "predicate", predicate, 5);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct Poseidon2Permutation {
        std::vector<Acir::FunctionInput> inputs;
        std::vector<Acir::Witness> outputs;
 
        friend bool operator==(const Poseidon2Permutation&, const Poseidon2Permutation&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Poseidon2Permutation bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(2);
            packer.pack(std::make_pair("inputs", inputs));
            packer.pack(std::make_pair("outputs", outputs));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "Poseidon2Permutation";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "inputs", inputs, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "outputs", outputs, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "inputs", inputs, 0);
                Helpers::conv_fld_from_array(array, name, "outputs", outputs, 1);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct Sha256Compression {
        std::shared_ptr<std::array<Acir::FunctionInput, 16>> inputs;
        std::shared_ptr<std::array<Acir::FunctionInput, 8>> hash_values;
        std::shared_ptr<std::array<Acir::Witness, 8>> outputs;
 
        friend bool operator==(const Sha256Compression&, const Sha256Compression&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Sha256Compression bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(3);
            packer.pack(std::make_pair("inputs", inputs));
            packer.pack(std::make_pair("hash_values", hash_values));
            packer.pack(std::make_pair("outputs", outputs));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "Sha256Compression";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "inputs", inputs, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "hash_values", hash_values, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "outputs", outputs, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "inputs", inputs, 0);
                Helpers::conv_fld_from_array(array, name, "hash_values", hash_values, 1);
                Helpers::conv_fld_from_array(array, name, "outputs", outputs, 2);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    std::variant<AES128Encrypt,
                 AND,
                 XOR,
                 RANGE,
                 Blake2s,
                 Blake3,
                 EcdsaSecp256k1,
                 EcdsaSecp256r1,
                 MultiScalarMul,
                 EmbeddedCurveAdd,
                 Keccakf1600,
                 RecursiveAggregation,
                 Poseidon2Permutation,
                 Sha256Compression>
        value;
 
    friend bool operator==(const BlackBoxFuncCall&, const BlackBoxFuncCall&);
    std::vector<uint8_t> bincodeSerialize() const;
    static BlackBoxFuncCall bincodeDeserialize(std::vector<uint8_t>);
 
    void msgpack_pack(auto& packer) const
    {
        std::string tag;
        bool is_unit;
        switch (value.index()) {
 
        case 0:
            tag = "AES128Encrypt";
            is_unit = false;
            break;
        case 1:
            tag = "AND";
            is_unit = false;
            break;
        case 2:
            tag = "XOR";
            is_unit = false;
            break;
        case 3:
            tag = "RANGE";
            is_unit = false;
            break;
        case 4:
            tag = "Blake2s";
            is_unit = false;
            break;
        case 5:
            tag = "Blake3";
            is_unit = false;
            break;
        case 6:
            tag = "EcdsaSecp256k1";
            is_unit = false;
            break;
        case 7:
            tag = "EcdsaSecp256r1";
            is_unit = false;
            break;
        case 8:
            tag = "MultiScalarMul";
            is_unit = false;
            break;
        case 9:
            tag = "EmbeddedCurveAdd";
            is_unit = false;
            break;
        case 10:
            tag = "Keccakf1600";
            is_unit = false;
            break;
        case 11:
            tag = "RecursiveAggregation";
            is_unit = false;
            break;
        case 12:
            tag = "Poseidon2Permutation";
            is_unit = false;
            break;
        case 13:
            tag = "Sha256Compression";
            is_unit = false;
            break;
        default:
            throw_or_abort("unknown enum 'BlackBoxFuncCall' variant index: " + std::to_string(value.index()));
        }
        if (is_unit) {
            packer.pack(tag);
        } else {
            std::visit(
                [&packer, tag](const auto& arg) {
                    std::map<std::string, msgpack::object> data;
                    data[tag] = msgpack::object(arg);
                    packer.pack(data);
                },
                value);
        }
    }
 
    void msgpack_unpack(msgpack::object const& o)
    {
 
        if (o.type != msgpack::type::object_type::MAP && o.type != msgpack::type::object_type::STR) {
            std::cerr << o << std::endl;
            throw_or_abort("expected MAP or STR for enum 'BlackBoxFuncCall'; got type " + std::to_string(o.type));
        }
        if (o.type == msgpack::type::object_type::MAP && o.via.map.size != 1) {
            throw_or_abort("expected 1 entry for enum 'BlackBoxFuncCall'; got " + std::to_string(o.via.map.size));
        }
        std::string tag;
        try {
            if (o.type == msgpack::type::object_type::MAP) {
                o.via.map.ptr[0].key.convert(tag);
            } else {
                o.convert(tag);
            }
        } catch (const msgpack::type_error&) {
            std::cerr << o << std::endl;
            throw_or_abort("error converting tag to string for enum 'BlackBoxFuncCall'");
        }
        if (tag == "AES128Encrypt") {
            AES128Encrypt v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BlackBoxFuncCall::AES128Encrypt'");
            }
 
            value = v;
        } else if (tag == "AND") {
            AND v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BlackBoxFuncCall::AND'");
            }
 
            value = v;
        } else if (tag == "XOR") {
            XOR v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BlackBoxFuncCall::XOR'");
            }
 
            value = v;
        } else if (tag == "RANGE") {
            RANGE v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BlackBoxFuncCall::RANGE'");
            }
 
            value = v;
        } else if (tag == "Blake2s") {
            Blake2s v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BlackBoxFuncCall::Blake2s'");
            }
 
            value = v;
        } else if (tag == "Blake3") {
            Blake3 v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BlackBoxFuncCall::Blake3'");
            }
 
            value = v;
        } else if (tag == "EcdsaSecp256k1") {
            EcdsaSecp256k1 v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BlackBoxFuncCall::EcdsaSecp256k1'");
            }
 
            value = v;
        } else if (tag == "EcdsaSecp256r1") {
            EcdsaSecp256r1 v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BlackBoxFuncCall::EcdsaSecp256r1'");
            }
 
            value = v;
        } else if (tag == "MultiScalarMul") {
            MultiScalarMul v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BlackBoxFuncCall::MultiScalarMul'");
            }
 
            value = v;
        } else if (tag == "EmbeddedCurveAdd") {
            EmbeddedCurveAdd v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BlackBoxFuncCall::EmbeddedCurveAdd'");
            }
 
            value = v;
        } else if (tag == "Keccakf1600") {
            Keccakf1600 v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BlackBoxFuncCall::Keccakf1600'");
            }
 
            value = v;
        } else if (tag == "RecursiveAggregation") {
            RecursiveAggregation v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BlackBoxFuncCall::RecursiveAggregation'");
            }
 
            value = v;
        } else if (tag == "Poseidon2Permutation") {
            Poseidon2Permutation v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BlackBoxFuncCall::Poseidon2Permutation'");
            }
 
            value = v;
        } else if (tag == "Sha256Compression") {
            Sha256Compression v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BlackBoxFuncCall::Sha256Compression'");
            }
 
            value = v;
        } else {
            std::cerr << o << std::endl;
            throw_or_abort("unknown 'BlackBoxFuncCall' enum variant: " + tag);
        }
    }
};
 
struct BlockId {
    uint32_t value;
 
    friend bool operator==(const BlockId&, const BlockId&);
    std::vector<uint8_t> bincodeSerialize() const;
    static BlockId bincodeDeserialize(std::vector<uint8_t>);
 
    void msgpack_pack(auto& packer) const { packer.pack(value); }
 
    void msgpack_unpack(msgpack::object const& o)
    {
        try {
            o.convert(value);
        } catch (const msgpack::type_error&) {
            std::cerr << o << std::endl;
            throw_or_abort("error converting into newtype 'BlockId'");
        }
    }
};
 
struct BlockType {
 
    struct Memory {
        friend bool operator==(const Memory&, const Memory&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Memory bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const {}
        void msgpack_unpack(msgpack::object const& o) {}
    };
 
    struct CallData {
        uint32_t value;
 
        friend bool operator==(const CallData&, const CallData&);
        std::vector<uint8_t> bincodeSerialize() const;
        static CallData bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const { packer.pack(value); }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            try {
                o.convert(value);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into newtype 'CallData'");
            }
        }
    };
 
    struct ReturnData {
        friend bool operator==(const ReturnData&, const ReturnData&);
        std::vector<uint8_t> bincodeSerialize() const;
        static ReturnData bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const {}
        void msgpack_unpack(msgpack::object const& o) {}
    };
 
    std::variant<Memory, CallData, ReturnData> value;
 
    friend bool operator==(const BlockType&, const BlockType&);
    std::vector<uint8_t> bincodeSerialize() const;
    static BlockType bincodeDeserialize(std::vector<uint8_t>);
 
    void msgpack_pack(auto& packer) const
    {
        std::string tag;
        bool is_unit;
        switch (value.index()) {
 
        case 0:
            tag = "Memory";
            is_unit = true;
            break;
        case 1:
            tag = "CallData";
            is_unit = false;
            break;
        case 2:
            tag = "ReturnData";
            is_unit = true;
            break;
        default:
            throw_or_abort("unknown enum 'BlockType' variant index: " + std::to_string(value.index()));
        }
        if (is_unit) {
            packer.pack(tag);
        } else {
            std::visit(
                [&packer, tag](const auto& arg) {
                    std::map<std::string, msgpack::object> data;
                    data[tag] = msgpack::object(arg);
                    packer.pack(data);
                },
                value);
        }
    }
 
    void msgpack_unpack(msgpack::object const& o)
    {
 
        if (o.type != msgpack::type::object_type::MAP && o.type != msgpack::type::object_type::STR) {
            std::cerr << o << std::endl;
            throw_or_abort("expected MAP or STR for enum 'BlockType'; got type " + std::to_string(o.type));
        }
        if (o.type == msgpack::type::object_type::MAP && o.via.map.size != 1) {
            throw_or_abort("expected 1 entry for enum 'BlockType'; got " + std::to_string(o.via.map.size));
        }
        std::string tag;
        try {
            if (o.type == msgpack::type::object_type::MAP) {
                o.via.map.ptr[0].key.convert(tag);
            } else {
                o.convert(tag);
            }
        } catch (const msgpack::type_error&) {
            std::cerr << o << std::endl;
            throw_or_abort("error converting tag to string for enum 'BlockType'");
        }
        if (tag == "Memory") {
            Memory v;
            value = v;
        } else if (tag == "CallData") {
            CallData v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BlockType::CallData'");
            }
 
            value = v;
        } else if (tag == "ReturnData") {
            ReturnData v;
            value = v;
        } else {
            std::cerr << o << std::endl;
            throw_or_abort("unknown 'BlockType' enum variant: " + tag);
        }
    }
};
 
struct Expression {
    std::vector<std::tuple<std::vector<uint8_t>, Acir::Witness, Acir::Witness>> mul_terms;
    std::vector<std::tuple<std::vector<uint8_t>, Acir::Witness>> linear_combinations;
    std::vector<uint8_t> q_c;
 
    friend bool operator==(const Expression&, const Expression&);
    std::vector<uint8_t> bincodeSerialize() const;
    static Expression bincodeDeserialize(std::vector<uint8_t>);
 
    void msgpack_pack(auto& packer) const
    {
        packer.pack_map(3);
        packer.pack(std::make_pair("mul_terms", mul_terms));
        packer.pack(std::make_pair("linear_combinations", linear_combinations));
        packer.pack(std::make_pair("q_c", q_c));
    }
 
    void msgpack_unpack(msgpack::object const& o)
    {
        std::string name = "Expression";
        if (o.type == msgpack::type::MAP) {
            auto kvmap = Helpers::make_kvmap(o, name);
            Helpers::conv_fld_from_kvmap(kvmap, name, "mul_terms", mul_terms, false);
            Helpers::conv_fld_from_kvmap(kvmap, name, "linear_combinations", linear_combinations, false);
            Helpers::conv_fld_from_kvmap(kvmap, name, "q_c", q_c, false);
        } else if (o.type == msgpack::type::ARRAY) {
            auto array = o.via.array;
            Helpers::conv_fld_from_array(array, name, "mul_terms", mul_terms, 0);
            Helpers::conv_fld_from_array(array, name, "linear_combinations", linear_combinations, 1);
            Helpers::conv_fld_from_array(array, name, "q_c", q_c, 2);
        } else {
            throw_or_abort("expected MAP or ARRAY for " + name);
        }
    }
};
 
struct BrilligInputs {
 
    struct Single {
        Acir::Expression value;
 
        friend bool operator==(const Single&, const Single&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Single bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const { packer.pack(value); }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            try {
                o.convert(value);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into newtype 'Single'");
            }
        }
    };
 
    struct Array {
        std::vector<Acir::Expression> value;
 
        friend bool operator==(const Array&, const Array&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Array bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const { packer.pack(value); }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            try {
                o.convert(value);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into newtype 'Array'");
            }
        }
    };
 
    struct MemoryArray {
        Acir::BlockId value;
 
        friend bool operator==(const MemoryArray&, const MemoryArray&);
        std::vector<uint8_t> bincodeSerialize() const;
        static MemoryArray bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const { packer.pack(value); }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            try {
                o.convert(value);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into newtype 'MemoryArray'");
            }
        }
    };
 
    std::variant<Single, Array, MemoryArray> value;
 
    friend bool operator==(const BrilligInputs&, const BrilligInputs&);
    std::vector<uint8_t> bincodeSerialize() const;
    static BrilligInputs bincodeDeserialize(std::vector<uint8_t>);
 
    void msgpack_pack(auto& packer) const
    {
        std::string tag;
        bool is_unit;
        switch (value.index()) {
 
        case 0:
            tag = "Single";
            is_unit = false;
            break;
        case 1:
            tag = "Array";
            is_unit = false;
            break;
        case 2:
            tag = "MemoryArray";
            is_unit = false;
            break;
        default:
            throw_or_abort("unknown enum 'BrilligInputs' variant index: " + std::to_string(value.index()));
        }
        if (is_unit) {
            packer.pack(tag);
        } else {
            std::visit(
                [&packer, tag](const auto& arg) {
                    std::map<std::string, msgpack::object> data;
                    data[tag] = msgpack::object(arg);
                    packer.pack(data);
                },
                value);
        }
    }
 
    void msgpack_unpack(msgpack::object const& o)
    {
 
        if (o.type != msgpack::type::object_type::MAP && o.type != msgpack::type::object_type::STR) {
            std::cerr << o << std::endl;
            throw_or_abort("expected MAP or STR for enum 'BrilligInputs'; got type " + std::to_string(o.type));
        }
        if (o.type == msgpack::type::object_type::MAP && o.via.map.size != 1) {
            throw_or_abort("expected 1 entry for enum 'BrilligInputs'; got " + std::to_string(o.via.map.size));
        }
        std::string tag;
        try {
            if (o.type == msgpack::type::object_type::MAP) {
                o.via.map.ptr[0].key.convert(tag);
            } else {
                o.convert(tag);
            }
        } catch (const msgpack::type_error&) {
            std::cerr << o << std::endl;
            throw_or_abort("error converting tag to string for enum 'BrilligInputs'");
        }
        if (tag == "Single") {
            Single v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BrilligInputs::Single'");
            }
 
            value = v;
        } else if (tag == "Array") {
            Array v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BrilligInputs::Array'");
            }
 
            value = v;
        } else if (tag == "MemoryArray") {
            MemoryArray v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BrilligInputs::MemoryArray'");
            }
 
            value = v;
        } else {
            std::cerr << o << std::endl;
            throw_or_abort("unknown 'BrilligInputs' enum variant: " + tag);
        }
    }
};
 
struct BrilligOutputs {
 
    struct Simple {
        Acir::Witness value;
 
        friend bool operator==(const Simple&, const Simple&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Simple bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const { packer.pack(value); }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            try {
                o.convert(value);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into newtype 'Simple'");
            }
        }
    };
 
    struct Array {
        std::vector<Acir::Witness> value;
 
        friend bool operator==(const Array&, const Array&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Array bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const { packer.pack(value); }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            try {
                o.convert(value);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into newtype 'Array'");
            }
        }
    };
 
    std::variant<Simple, Array> value;
 
    friend bool operator==(const BrilligOutputs&, const BrilligOutputs&);
    std::vector<uint8_t> bincodeSerialize() const;
    static BrilligOutputs bincodeDeserialize(std::vector<uint8_t>);
 
    void msgpack_pack(auto& packer) const
    {
        std::string tag;
        bool is_unit;
        switch (value.index()) {
 
        case 0:
            tag = "Simple";
            is_unit = false;
            break;
        case 1:
            tag = "Array";
            is_unit = false;
            break;
        default:
            throw_or_abort("unknown enum 'BrilligOutputs' variant index: " + std::to_string(value.index()));
        }
        if (is_unit) {
            packer.pack(tag);
        } else {
            std::visit(
                [&packer, tag](const auto& arg) {
                    std::map<std::string, msgpack::object> data;
                    data[tag] = msgpack::object(arg);
                    packer.pack(data);
                },
                value);
        }
    }
 
    void msgpack_unpack(msgpack::object const& o)
    {
 
        if (o.type != msgpack::type::object_type::MAP && o.type != msgpack::type::object_type::STR) {
            std::cerr << o << std::endl;
            throw_or_abort("expected MAP or STR for enum 'BrilligOutputs'; got type " + std::to_string(o.type));
        }
        if (o.type == msgpack::type::object_type::MAP && o.via.map.size != 1) {
            throw_or_abort("expected 1 entry for enum 'BrilligOutputs'; got " + std::to_string(o.via.map.size));
        }
        std::string tag;
        try {
            if (o.type == msgpack::type::object_type::MAP) {
                o.via.map.ptr[0].key.convert(tag);
            } else {
                o.convert(tag);
            }
        } catch (const msgpack::type_error&) {
            std::cerr << o << std::endl;
            throw_or_abort("error converting tag to string for enum 'BrilligOutputs'");
        }
        if (tag == "Simple") {
            Simple v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BrilligOutputs::Simple'");
            }
 
            value = v;
        } else if (tag == "Array") {
            Array v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'BrilligOutputs::Array'");
            }
 
            value = v;
        } else {
            std::cerr << o << std::endl;
            throw_or_abort("unknown 'BrilligOutputs' enum variant: " + tag);
        }
    }
};
 
struct MemOp {
    Acir::Expression operation;
    Acir::Expression index;
    Acir::Expression value;
 
    friend bool operator==(const MemOp&, const MemOp&);
    std::vector<uint8_t> bincodeSerialize() const;
    static MemOp bincodeDeserialize(std::vector<uint8_t>);
 
    void msgpack_pack(auto& packer) const
    {
        packer.pack_map(3);
        packer.pack(std::make_pair("operation", operation));
        packer.pack(std::make_pair("index", index));
        packer.pack(std::make_pair("value", value));
    }
 
    void msgpack_unpack(msgpack::object const& o)
    {
        std::string name = "MemOp";
        if (o.type == msgpack::type::MAP) {
            auto kvmap = Helpers::make_kvmap(o, name);
            Helpers::conv_fld_from_kvmap(kvmap, name, "operation", operation, false);
            Helpers::conv_fld_from_kvmap(kvmap, name, "index", index, false);
            Helpers::conv_fld_from_kvmap(kvmap, name, "value", value, false);
        } else if (o.type == msgpack::type::ARRAY) {
            auto array = o.via.array;
            Helpers::conv_fld_from_array(array, name, "operation", operation, 0);
            Helpers::conv_fld_from_array(array, name, "index", index, 1);
            Helpers::conv_fld_from_array(array, name, "value", value, 2);
        } else {
            throw_or_abort("expected MAP or ARRAY for " + name);
        }
    }
};
 
struct Opcode {
 
    struct AssertZero {
        Acir::Expression value;
 
        friend bool operator==(const AssertZero&, const AssertZero&);
        std::vector<uint8_t> bincodeSerialize() const;
        static AssertZero bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const { packer.pack(value); }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            try {
                o.convert(value);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into newtype 'AssertZero'");
            }
        }
    };
 
    struct BlackBoxFuncCall {
        Acir::BlackBoxFuncCall value;
 
        friend bool operator==(const BlackBoxFuncCall&, const BlackBoxFuncCall&);
        std::vector<uint8_t> bincodeSerialize() const;
        static BlackBoxFuncCall bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const { packer.pack(value); }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            try {
                o.convert(value);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into newtype 'BlackBoxFuncCall'");
            }
        }
    };
 
    struct MemoryOp {
        Acir::BlockId block_id;
        Acir::MemOp op;
 
        friend bool operator==(const MemoryOp&, const MemoryOp&);
        std::vector<uint8_t> bincodeSerialize() const;
        static MemoryOp bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(2);
            packer.pack(std::make_pair("block_id", block_id));
            packer.pack(std::make_pair("op", op));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "MemoryOp";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "block_id", block_id, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "op", op, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "block_id", block_id, 0);
                Helpers::conv_fld_from_array(array, name, "op", op, 1);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct MemoryInit {
        Acir::BlockId block_id;
        std::vector<Acir::Witness> init;
        Acir::BlockType block_type;
 
        friend bool operator==(const MemoryInit&, const MemoryInit&);
        std::vector<uint8_t> bincodeSerialize() const;
        static MemoryInit bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(3);
            packer.pack(std::make_pair("block_id", block_id));
            packer.pack(std::make_pair("init", init));
            packer.pack(std::make_pair("block_type", block_type));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "MemoryInit";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "block_id", block_id, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "init", init, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "block_type", block_type, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "block_id", block_id, 0);
                Helpers::conv_fld_from_array(array, name, "init", init, 1);
                Helpers::conv_fld_from_array(array, name, "block_type", block_type, 2);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct BrilligCall {
        uint32_t id;
        std::vector<Acir::BrilligInputs> inputs;
        std::vector<Acir::BrilligOutputs> outputs;
        std::optional<Acir::Expression> predicate;
 
        friend bool operator==(const BrilligCall&, const BrilligCall&);
        std::vector<uint8_t> bincodeSerialize() const;
        static BrilligCall bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(4);
            packer.pack(std::make_pair("id", id));
            packer.pack(std::make_pair("inputs", inputs));
            packer.pack(std::make_pair("outputs", outputs));
            packer.pack(std::make_pair("predicate", predicate));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "BrilligCall";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "id", id, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "inputs", inputs, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "outputs", outputs, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "predicate", predicate, true);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "id", id, 0);
                Helpers::conv_fld_from_array(array, name, "inputs", inputs, 1);
                Helpers::conv_fld_from_array(array, name, "outputs", outputs, 2);
                Helpers::conv_fld_from_array(array, name, "predicate", predicate, 3);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    struct Call {
        uint32_t id;
        std::vector<Acir::Witness> inputs;
        std::vector<Acir::Witness> outputs;
        std::optional<Acir::Expression> predicate;
 
        friend bool operator==(const Call&, const Call&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Call bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(4);
            packer.pack(std::make_pair("id", id));
            packer.pack(std::make_pair("inputs", inputs));
            packer.pack(std::make_pair("outputs", outputs));
            packer.pack(std::make_pair("predicate", predicate));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "Call";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "id", id, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "inputs", inputs, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "outputs", outputs, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "predicate", predicate, true);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "id", id, 0);
                Helpers::conv_fld_from_array(array, name, "inputs", inputs, 1);
                Helpers::conv_fld_from_array(array, name, "outputs", outputs, 2);
                Helpers::conv_fld_from_array(array, name, "predicate", predicate, 3);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    std::variant<AssertZero, BlackBoxFuncCall, MemoryOp, MemoryInit, BrilligCall, Call> value;
 
    friend bool operator==(const Opcode&, const Opcode&);
    std::vector<uint8_t> bincodeSerialize() const;
    static Opcode bincodeDeserialize(std::vector<uint8_t>);
 
    void msgpack_pack(auto& packer) const
    {
        std::string tag;
        bool is_unit;
        switch (value.index()) {
 
        case 0:
            tag = "AssertZero";
            is_unit = false;
            break;
        case 1:
            tag = "BlackBoxFuncCall";
            is_unit = false;
            break;
        case 2:
            tag = "MemoryOp";
            is_unit = false;
            break;
        case 3:
            tag = "MemoryInit";
            is_unit = false;
            break;
        case 4:
            tag = "BrilligCall";
            is_unit = false;
            break;
        case 5:
            tag = "Call";
            is_unit = false;
            break;
        default:
            throw_or_abort("unknown enum 'Opcode' variant index: " + std::to_string(value.index()));
        }
        if (is_unit) {
            packer.pack(tag);
        } else {
            std::visit(
                [&packer, tag](const auto& arg) {
                    std::map<std::string, msgpack::object> data;
                    data[tag] = msgpack::object(arg);
                    packer.pack(data);
                },
                value);
        }
    }
 
    void msgpack_unpack(msgpack::object const& o)
    {
 
        if (o.type != msgpack::type::object_type::MAP && o.type != msgpack::type::object_type::STR) {
            std::cerr << o << std::endl;
            throw_or_abort("expected MAP or STR for enum 'Opcode'; got type " + std::to_string(o.type));
        }
        if (o.type == msgpack::type::object_type::MAP && o.via.map.size != 1) {
            throw_or_abort("expected 1 entry for enum 'Opcode'; got " + std::to_string(o.via.map.size));
        }
        std::string tag;
        try {
            if (o.type == msgpack::type::object_type::MAP) {
                o.via.map.ptr[0].key.convert(tag);
            } else {
                o.convert(tag);
            }
        } catch (const msgpack::type_error&) {
            std::cerr << o << std::endl;
            throw_or_abort("error converting tag to string for enum 'Opcode'");
        }
        if (tag == "AssertZero") {
            AssertZero v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'Opcode::AssertZero'");
            }
 
            value = v;
        } else if (tag == "BlackBoxFuncCall") {
            BlackBoxFuncCall v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'Opcode::BlackBoxFuncCall'");
            }
 
            value = v;
        } else if (tag == "MemoryOp") {
            MemoryOp v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'Opcode::MemoryOp'");
            }
 
            value = v;
        } else if (tag == "MemoryInit") {
            MemoryInit v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'Opcode::MemoryInit'");
            }
 
            value = v;
        } else if (tag == "BrilligCall") {
            BrilligCall v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'Opcode::BrilligCall'");
            }
 
            value = v;
        } else if (tag == "Call") {
            Call v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'Opcode::Call'");
            }
 
            value = v;
        } else {
            std::cerr << o << std::endl;
            throw_or_abort("unknown 'Opcode' enum variant: " + tag);
        }
    }
};
 
struct ExpressionOrMemory {
 
    struct Expression {
        Acir::Expression value;
 
        friend bool operator==(const Expression&, const Expression&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Expression bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const { packer.pack(value); }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            try {
                o.convert(value);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into newtype 'Expression'");
            }
        }
    };
 
    struct Memory {
        Acir::BlockId value;
 
        friend bool operator==(const Memory&, const Memory&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Memory bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const { packer.pack(value); }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            try {
                o.convert(value);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into newtype 'Memory'");
            }
        }
    };
 
    std::variant<Expression, Memory> value;
 
    friend bool operator==(const ExpressionOrMemory&, const ExpressionOrMemory&);
    std::vector<uint8_t> bincodeSerialize() const;
    static ExpressionOrMemory bincodeDeserialize(std::vector<uint8_t>);
 
    void msgpack_pack(auto& packer) const
    {
        std::string tag;
        bool is_unit;
        switch (value.index()) {
 
        case 0:
            tag = "Expression";
            is_unit = false;
            break;
        case 1:
            tag = "Memory";
            is_unit = false;
            break;
        default:
            throw_or_abort("unknown enum 'ExpressionOrMemory' variant index: " + std::to_string(value.index()));
        }
        if (is_unit) {
            packer.pack(tag);
        } else {
            std::visit(
                [&packer, tag](const auto& arg) {
                    std::map<std::string, msgpack::object> data;
                    data[tag] = msgpack::object(arg);
                    packer.pack(data);
                },
                value);
        }
    }
 
    void msgpack_unpack(msgpack::object const& o)
    {
 
        if (o.type != msgpack::type::object_type::MAP && o.type != msgpack::type::object_type::STR) {
            std::cerr << o << std::endl;
            throw_or_abort("expected MAP or STR for enum 'ExpressionOrMemory'; got type " + std::to_string(o.type));
        }
        if (o.type == msgpack::type::object_type::MAP && o.via.map.size != 1) {
            throw_or_abort("expected 1 entry for enum 'ExpressionOrMemory'; got " + std::to_string(o.via.map.size));
        }
        std::string tag;
        try {
            if (o.type == msgpack::type::object_type::MAP) {
                o.via.map.ptr[0].key.convert(tag);
            } else {
                o.convert(tag);
            }
        } catch (const msgpack::type_error&) {
            std::cerr << o << std::endl;
            throw_or_abort("error converting tag to string for enum 'ExpressionOrMemory'");
        }
        if (tag == "Expression") {
            Expression v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'ExpressionOrMemory::Expression'");
            }
 
            value = v;
        } else if (tag == "Memory") {
            Memory v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'ExpressionOrMemory::Memory'");
            }
 
            value = v;
        } else {
            std::cerr << o << std::endl;
            throw_or_abort("unknown 'ExpressionOrMemory' enum variant: " + tag);
        }
    }
};
 
struct AssertionPayload {
    uint64_t error_selector;
    std::vector<Acir::ExpressionOrMemory> payload;
 
    friend bool operator==(const AssertionPayload&, const AssertionPayload&);
    std::vector<uint8_t> bincodeSerialize() const;
    static AssertionPayload bincodeDeserialize(std::vector<uint8_t>);
 
    void msgpack_pack(auto& packer) const
    {
        packer.pack_map(2);
        packer.pack(std::make_pair("error_selector", error_selector));
        packer.pack(std::make_pair("payload", payload));
    }
 
    void msgpack_unpack(msgpack::object const& o)
    {
        std::string name = "AssertionPayload";
        if (o.type == msgpack::type::MAP) {
            auto kvmap = Helpers::make_kvmap(o, name);
            Helpers::conv_fld_from_kvmap(kvmap, name, "error_selector", error_selector, false);
            Helpers::conv_fld_from_kvmap(kvmap, name, "payload", payload, false);
        } else if (o.type == msgpack::type::ARRAY) {
            auto array = o.via.array;
            Helpers::conv_fld_from_array(array, name, "error_selector", error_selector, 0);
            Helpers::conv_fld_from_array(array, name, "payload", payload, 1);
        } else {
            throw_or_abort("expected MAP or ARRAY for " + name);
        }
    }
};
 
struct OpcodeLocation {
 
    struct Acir {
        uint64_t value;
 
        friend bool operator==(const Acir&, const Acir&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Acir bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const { packer.pack(value); }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            try {
                o.convert(value);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into newtype 'Acir'");
            }
        }
    };
 
    struct Brillig {
        uint64_t acir_index;
        uint64_t brillig_index;
 
        friend bool operator==(const Brillig&, const Brillig&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Brillig bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(2);
            packer.pack(std::make_pair("acir_index", acir_index));
            packer.pack(std::make_pair("brillig_index", brillig_index));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "Brillig";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "acir_index", acir_index, false);
                Helpers::conv_fld_from_kvmap(kvmap, name, "brillig_index", brillig_index, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "acir_index", acir_index, 0);
                Helpers::conv_fld_from_array(array, name, "brillig_index", brillig_index, 1);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    std::variant<Acir, Brillig> value;
 
    friend bool operator==(const OpcodeLocation&, const OpcodeLocation&);
    std::vector<uint8_t> bincodeSerialize() const;
    static OpcodeLocation bincodeDeserialize(std::vector<uint8_t>);
 
    void msgpack_pack(auto& packer) const
    {
        std::string tag;
        bool is_unit;
        switch (value.index()) {
 
        case 0:
            tag = "Acir";
            is_unit = false;
            break;
        case 1:
            tag = "Brillig";
            is_unit = false;
            break;
        default:
            throw_or_abort("unknown enum 'OpcodeLocation' variant index: " + std::to_string(value.index()));
        }
        if (is_unit) {
            packer.pack(tag);
        } else {
            std::visit(
                [&packer, tag](const auto& arg) {
                    std::map<std::string, msgpack::object> data;
                    data[tag] = msgpack::object(arg);
                    packer.pack(data);
                },
                value);
        }
    }
 
    void msgpack_unpack(msgpack::object const& o)
    {
 
        if (o.type != msgpack::type::object_type::MAP && o.type != msgpack::type::object_type::STR) {
            std::cerr << o << std::endl;
            throw_or_abort("expected MAP or STR for enum 'OpcodeLocation'; got type " + std::to_string(o.type));
        }
        if (o.type == msgpack::type::object_type::MAP && o.via.map.size != 1) {
            throw_or_abort("expected 1 entry for enum 'OpcodeLocation'; got " + std::to_string(o.via.map.size));
        }
        std::string tag;
        try {
            if (o.type == msgpack::type::object_type::MAP) {
                o.via.map.ptr[0].key.convert(tag);
            } else {
                o.convert(tag);
            }
        } catch (const msgpack::type_error&) {
            std::cerr << o << std::endl;
            throw_or_abort("error converting tag to string for enum 'OpcodeLocation'");
        }
        if (tag == "Acir") {
            Acir v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'OpcodeLocation::Acir'");
            }
 
            value = v;
        } else if (tag == "Brillig") {
            Brillig v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'OpcodeLocation::Brillig'");
            }
 
            value = v;
        } else {
            std::cerr << o << std::endl;
            throw_or_abort("unknown 'OpcodeLocation' enum variant: " + tag);
        }
    }
};
 
struct PublicInputs {
    std::vector<Acir::Witness> value;
 
    friend bool operator==(const PublicInputs&, const PublicInputs&);
    std::vector<uint8_t> bincodeSerialize() const;
    static PublicInputs bincodeDeserialize(std::vector<uint8_t>);
 
    void msgpack_pack(auto& packer) const { packer.pack(value); }
 
    void msgpack_unpack(msgpack::object const& o)
    {
        try {
            o.convert(value);
        } catch (const msgpack::type_error&) {
            std::cerr << o << std::endl;
            throw_or_abort("error converting into newtype 'PublicInputs'");
        }
    }
};
 
struct Circuit {
    std::string function_name;
    uint32_t current_witness_index;
    std::vector<Acir::Opcode> opcodes;
    std::vector<Acir::Witness> private_parameters;
    Acir::PublicInputs public_parameters;
    Acir::PublicInputs return_values;
    std::vector<std::tuple<Acir::OpcodeLocation, Acir::AssertionPayload>> assert_messages;
 
    friend bool operator==(const Circuit&, const Circuit&);
    std::vector<uint8_t> bincodeSerialize() const;
    static Circuit bincodeDeserialize(std::vector<uint8_t>);
 
    void msgpack_pack(auto& packer) const
    {
        packer.pack_map(7);
        packer.pack(std::make_pair("function_name", function_name));
        packer.pack(std::make_pair("current_witness_index", current_witness_index));
        packer.pack(std::make_pair("opcodes", opcodes));
        packer.pack(std::make_pair("private_parameters", private_parameters));
        packer.pack(std::make_pair("public_parameters", public_parameters));
        packer.pack(std::make_pair("return_values", return_values));
        packer.pack(std::make_pair("assert_messages", assert_messages));
    }
 
    void msgpack_unpack(msgpack::object const& o)
    {
        std::string name = "Circuit";
        if (o.type == msgpack::type::MAP) {
            auto kvmap = Helpers::make_kvmap(o, name);
            Helpers::conv_fld_from_kvmap(kvmap, name, "function_name", function_name, false);
            Helpers::conv_fld_from_kvmap(kvmap, name, "current_witness_index", current_witness_index, false);
            Helpers::conv_fld_from_kvmap(kvmap, name, "opcodes", opcodes, false);
            Helpers::conv_fld_from_kvmap(kvmap, name, "private_parameters", private_parameters, false);
            Helpers::conv_fld_from_kvmap(kvmap, name, "public_parameters", public_parameters, false);
            Helpers::conv_fld_from_kvmap(kvmap, name, "return_values", return_values, false);
            Helpers::conv_fld_from_kvmap(kvmap, name, "assert_messages", assert_messages, false);
        } else if (o.type == msgpack::type::ARRAY) {
            auto array = o.via.array;
            Helpers::conv_fld_from_array(array, name, "function_name", function_name, 0);
            Helpers::conv_fld_from_array(array, name, "current_witness_index", current_witness_index, 1);
            Helpers::conv_fld_from_array(array, name, "opcodes", opcodes, 2);
            Helpers::conv_fld_from_array(array, name, "private_parameters", private_parameters, 3);
            Helpers::conv_fld_from_array(array, name, "public_parameters", public_parameters, 4);
            Helpers::conv_fld_from_array(array, name, "return_values", return_values, 5);
            Helpers::conv_fld_from_array(array, name, "assert_messages", assert_messages, 6);
        } else {
            throw_or_abort("expected MAP or ARRAY for " + name);
        }
    }
};
 
struct BrilligBytecode {
    std::string function_name;
    std::vector<Acir::BrilligOpcode> bytecode;
 
    friend bool operator==(const BrilligBytecode&, const BrilligBytecode&);
    std::vector<uint8_t> bincodeSerialize() const;
    static BrilligBytecode bincodeDeserialize(std::vector<uint8_t>);
 
    void msgpack_pack(auto& packer) const
    {
        packer.pack_map(2);
        packer.pack(std::make_pair("function_name", function_name));
        packer.pack(std::make_pair("bytecode", bytecode));
    }
 
    void msgpack_unpack(msgpack::object const& o)
    {
        std::string name = "BrilligBytecode";
        if (o.type == msgpack::type::MAP) {
            auto kvmap = Helpers::make_kvmap(o, name);
            Helpers::conv_fld_from_kvmap(kvmap, name, "function_name", function_name, false);
            Helpers::conv_fld_from_kvmap(kvmap, name, "bytecode", bytecode, false);
        } else if (o.type == msgpack::type::ARRAY) {
            auto array = o.via.array;
            Helpers::conv_fld_from_array(array, name, "function_name", function_name, 0);
            Helpers::conv_fld_from_array(array, name, "bytecode", bytecode, 1);
        } else {
            throw_or_abort("expected MAP or ARRAY for " + name);
        }
    }
};
 
struct Program {
    std::vector<Acir::Circuit> functions;
    std::vector<Acir::BrilligBytecode> unconstrained_functions;
 
    friend bool operator==(const Program&, const Program&);
    std::vector<uint8_t> bincodeSerialize() const;
    static Program bincodeDeserialize(std::vector<uint8_t>);
 
    void msgpack_pack(auto& packer) const
    {
        packer.pack_map(2);
        packer.pack(std::make_pair("functions", functions));
        packer.pack(std::make_pair("unconstrained_functions", unconstrained_functions));
    }
 
    void msgpack_unpack(msgpack::object const& o)
    {
        std::string name = "Program";
        if (o.type == msgpack::type::MAP) {
            auto kvmap = Helpers::make_kvmap(o, name);
            Helpers::conv_fld_from_kvmap(kvmap, name, "functions", functions, false);
            Helpers::conv_fld_from_kvmap(kvmap, name, "unconstrained_functions", unconstrained_functions, false);
        } else if (o.type == msgpack::type::ARRAY) {
            auto array = o.via.array;
            Helpers::conv_fld_from_array(array, name, "functions", functions, 0);
            Helpers::conv_fld_from_array(array, name, "unconstrained_functions", unconstrained_functions, 1);
        } else {
            throw_or_abort("expected MAP or ARRAY for " + name);
        }
    }
};
 
struct ProgramWithoutBrillig {
    std::vector<Acir::Circuit> functions;
    std::monostate unconstrained_functions;
 
    friend bool operator==(const ProgramWithoutBrillig&, const ProgramWithoutBrillig&);
    std::vector<uint8_t> bincodeSerialize() const;
    static ProgramWithoutBrillig bincodeDeserialize(std::vector<uint8_t>);
 
    void msgpack_pack(auto& packer) const
    {
        packer.pack_map(1);
        packer.pack(std::make_pair("functions", functions));
    }
 
    void msgpack_unpack(msgpack::object const& o)
    {
        std::string name = "ProgramWithoutBrillig";
        if (o.type == msgpack::type::MAP) {
            auto kvmap = Helpers::make_kvmap(o, name);
            Helpers::conv_fld_from_kvmap(kvmap, name, "functions", functions, false);
        } else if (o.type == msgpack::type::ARRAY) {
            auto array = o.via.array;
            Helpers::conv_fld_from_array(array, name, "functions", functions, 0);
        } else {
            throw_or_abort("expected MAP or ARRAY for " + name);
        }
    }
};
 
struct ExpressionWidth {
 
    struct Unbounded {
        friend bool operator==(const Unbounded&, const Unbounded&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Unbounded bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const {}
        void msgpack_unpack(msgpack::object const& o) {}
    };
 
    struct Bounded {
        uint64_t width;
 
        friend bool operator==(const Bounded&, const Bounded&);
        std::vector<uint8_t> bincodeSerialize() const;
        static Bounded bincodeDeserialize(std::vector<uint8_t>);
 
        void msgpack_pack(auto& packer) const
        {
            packer.pack_map(1);
            packer.pack(std::make_pair("width", width));
        }
 
        void msgpack_unpack(msgpack::object const& o)
        {
            std::string name = "Bounded";
            if (o.type == msgpack::type::MAP) {
                auto kvmap = Helpers::make_kvmap(o, name);
                Helpers::conv_fld_from_kvmap(kvmap, name, "width", width, false);
            } else if (o.type == msgpack::type::ARRAY) {
                auto array = o.via.array;
                Helpers::conv_fld_from_array(array, name, "width", width, 0);
            } else {
                throw_or_abort("expected MAP or ARRAY for " + name);
            }
        }
    };
 
    std::variant<Unbounded, Bounded> value;
 
    friend bool operator==(const ExpressionWidth&, const ExpressionWidth&);
    std::vector<uint8_t> bincodeSerialize() const;
    static ExpressionWidth bincodeDeserialize(std::vector<uint8_t>);
 
    void msgpack_pack(auto& packer) const
    {
        std::string tag;
        bool is_unit;
        switch (value.index()) {
 
        case 0:
            tag = "Unbounded";
            is_unit = true;
            break;
        case 1:
            tag = "Bounded";
            is_unit = false;
            break;
        default:
            throw_or_abort("unknown enum 'ExpressionWidth' variant index: " + std::to_string(value.index()));
        }
        if (is_unit) {
            packer.pack(tag);
        } else {
            std::visit(
                [&packer, tag](const auto& arg) {
                    std::map<std::string, msgpack::object> data;
                    data[tag] = msgpack::object(arg);
                    packer.pack(data);
                },
                value);
        }
    }
 
    void msgpack_unpack(msgpack::object const& o)
    {
 
        if (o.type != msgpack::type::object_type::MAP && o.type != msgpack::type::object_type::STR) {
            std::cerr << o << std::endl;
            throw_or_abort("expected MAP or STR for enum 'ExpressionWidth'; got type " + std::to_string(o.type));
        }
        if (o.type == msgpack::type::object_type::MAP && o.via.map.size != 1) {
            throw_or_abort("expected 1 entry for enum 'ExpressionWidth'; got " + std::to_string(o.via.map.size));
        }
        std::string tag;
        try {
            if (o.type == msgpack::type::object_type::MAP) {
                o.via.map.ptr[0].key.convert(tag);
            } else {
                o.convert(tag);
            }
        } catch (const msgpack::type_error&) {
            std::cerr << o << std::endl;
            throw_or_abort("error converting tag to string for enum 'ExpressionWidth'");
        }
        if (tag == "Unbounded") {
            Unbounded v;
            value = v;
        } else if (tag == "Bounded") {
            Bounded v;
            try {
                o.via.map.ptr[0].val.convert(v);
            } catch (const msgpack::type_error&) {
                std::cerr << o << std::endl;
                throw_or_abort("error converting into enum variant 'ExpressionWidth::Bounded'");
            }
 
            value = v;
        } else {
            std::cerr << o << std::endl;
            throw_or_abort("unknown 'ExpressionWidth' enum variant: " + tag);
        }
    }
};
 
} // end of namespace Acir
 
namespace Acir {
 
inline bool operator==(const AssertionPayload& lhs, const AssertionPayload& rhs)
{
    if (!(lhs.error_selector == rhs.error_selector)) {
        return false;
    }
    if (!(lhs.payload == rhs.payload)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> AssertionPayload::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<AssertionPayload>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline AssertionPayload AssertionPayload::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<AssertionPayload>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::AssertionPayload>::serialize(const Acir::AssertionPayload& obj, Serializer& serializer)
{
    serializer.increase_container_depth();
    serde::Serializable<decltype(obj.error_selector)>::serialize(obj.error_selector, serializer);
    serde::Serializable<decltype(obj.payload)>::serialize(obj.payload, serializer);
    serializer.decrease_container_depth();
}
 
template <>
template <typename Deserializer>
Acir::AssertionPayload serde::Deserializable<Acir::AssertionPayload>::deserialize(Deserializer& deserializer)
{
    deserializer.increase_container_depth();
    Acir::AssertionPayload obj;
    obj.error_selector = serde::Deserializable<decltype(obj.error_selector)>::deserialize(deserializer);
    obj.payload = serde::Deserializable<decltype(obj.payload)>::deserialize(deserializer);
    deserializer.decrease_container_depth();
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BinaryFieldOp& lhs, const BinaryFieldOp& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BinaryFieldOp::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BinaryFieldOp>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BinaryFieldOp BinaryFieldOp::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BinaryFieldOp>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BinaryFieldOp>::serialize(const Acir::BinaryFieldOp& obj, Serializer& serializer)
{
    serializer.increase_container_depth();
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
    serializer.decrease_container_depth();
}
 
template <>
template <typename Deserializer>
Acir::BinaryFieldOp serde::Deserializable<Acir::BinaryFieldOp>::deserialize(Deserializer& deserializer)
{
    deserializer.increase_container_depth();
    Acir::BinaryFieldOp obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    deserializer.decrease_container_depth();
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BinaryFieldOp::Add& lhs, const BinaryFieldOp::Add& rhs)
{
    return true;
}
 
inline std::vector<uint8_t> BinaryFieldOp::Add::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BinaryFieldOp::Add>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BinaryFieldOp::Add BinaryFieldOp::Add::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BinaryFieldOp::Add>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BinaryFieldOp::Add>::serialize(const Acir::BinaryFieldOp::Add& obj,
                                                              Serializer& serializer)
{}
 
template <>
template <typename Deserializer>
Acir::BinaryFieldOp::Add serde::Deserializable<Acir::BinaryFieldOp::Add>::deserialize(Deserializer& deserializer)
{
    Acir::BinaryFieldOp::Add obj;
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BinaryFieldOp::Sub& lhs, const BinaryFieldOp::Sub& rhs)
{
    return true;
}
 
inline std::vector<uint8_t> BinaryFieldOp::Sub::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BinaryFieldOp::Sub>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BinaryFieldOp::Sub BinaryFieldOp::Sub::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BinaryFieldOp::Sub>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BinaryFieldOp::Sub>::serialize(const Acir::BinaryFieldOp::Sub& obj,
                                                              Serializer& serializer)
{}
 
template <>
template <typename Deserializer>
Acir::BinaryFieldOp::Sub serde::Deserializable<Acir::BinaryFieldOp::Sub>::deserialize(Deserializer& deserializer)
{
    Acir::BinaryFieldOp::Sub obj;
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BinaryFieldOp::Mul& lhs, const BinaryFieldOp::Mul& rhs)
{
    return true;
}
 
inline std::vector<uint8_t> BinaryFieldOp::Mul::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BinaryFieldOp::Mul>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BinaryFieldOp::Mul BinaryFieldOp::Mul::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BinaryFieldOp::Mul>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BinaryFieldOp::Mul>::serialize(const Acir::BinaryFieldOp::Mul& obj,
                                                              Serializer& serializer)
{}
 
template <>
template <typename Deserializer>
Acir::BinaryFieldOp::Mul serde::Deserializable<Acir::BinaryFieldOp::Mul>::deserialize(Deserializer& deserializer)
{
    Acir::BinaryFieldOp::Mul obj;
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BinaryFieldOp::Div& lhs, const BinaryFieldOp::Div& rhs)
{
    return true;
}
 
inline std::vector<uint8_t> BinaryFieldOp::Div::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BinaryFieldOp::Div>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BinaryFieldOp::Div BinaryFieldOp::Div::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BinaryFieldOp::Div>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BinaryFieldOp::Div>::serialize(const Acir::BinaryFieldOp::Div& obj,
                                                              Serializer& serializer)
{}
 
template <>
template <typename Deserializer>
Acir::BinaryFieldOp::Div serde::Deserializable<Acir::BinaryFieldOp::Div>::deserialize(Deserializer& deserializer)
{
    Acir::BinaryFieldOp::Div obj;
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BinaryFieldOp::IntegerDiv& lhs, const BinaryFieldOp::IntegerDiv& rhs)
{
    return true;
}
 
inline std::vector<uint8_t> BinaryFieldOp::IntegerDiv::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BinaryFieldOp::IntegerDiv>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BinaryFieldOp::IntegerDiv BinaryFieldOp::IntegerDiv::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BinaryFieldOp::IntegerDiv>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BinaryFieldOp::IntegerDiv>::serialize(const Acir::BinaryFieldOp::IntegerDiv& obj,
                                                                     Serializer& serializer)
{}
 
template <>
template <typename Deserializer>
Acir::BinaryFieldOp::IntegerDiv serde::Deserializable<Acir::BinaryFieldOp::IntegerDiv>::deserialize(
    Deserializer& deserializer)
{
    Acir::BinaryFieldOp::IntegerDiv obj;
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BinaryFieldOp::Equals& lhs, const BinaryFieldOp::Equals& rhs)
{
    return true;
}
 
inline std::vector<uint8_t> BinaryFieldOp::Equals::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BinaryFieldOp::Equals>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BinaryFieldOp::Equals BinaryFieldOp::Equals::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BinaryFieldOp::Equals>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BinaryFieldOp::Equals>::serialize(const Acir::BinaryFieldOp::Equals& obj,
                                                                 Serializer& serializer)
{}
 
template <>
template <typename Deserializer>
Acir::BinaryFieldOp::Equals serde::Deserializable<Acir::BinaryFieldOp::Equals>::deserialize(Deserializer& deserializer)
{
    Acir::BinaryFieldOp::Equals obj;
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BinaryFieldOp::LessThan& lhs, const BinaryFieldOp::LessThan& rhs)
{
    return true;
}
 
inline std::vector<uint8_t> BinaryFieldOp::LessThan::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BinaryFieldOp::LessThan>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BinaryFieldOp::LessThan BinaryFieldOp::LessThan::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BinaryFieldOp::LessThan>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BinaryFieldOp::LessThan>::serialize(const Acir::BinaryFieldOp::LessThan& obj,
                                                                   Serializer& serializer)
{}
 
template <>
template <typename Deserializer>
Acir::BinaryFieldOp::LessThan serde::Deserializable<Acir::BinaryFieldOp::LessThan>::deserialize(
    Deserializer& deserializer)
{
    Acir::BinaryFieldOp::LessThan obj;
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BinaryFieldOp::LessThanEquals& lhs, const BinaryFieldOp::LessThanEquals& rhs)
{
    return true;
}
 
inline std::vector<uint8_t> BinaryFieldOp::LessThanEquals::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BinaryFieldOp::LessThanEquals>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BinaryFieldOp::LessThanEquals BinaryFieldOp::LessThanEquals::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BinaryFieldOp::LessThanEquals>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BinaryFieldOp::LessThanEquals>::serialize(const Acir::BinaryFieldOp::LessThanEquals& obj,
                                                                         Serializer& serializer)
{}
 
template <>
template <typename Deserializer>
Acir::BinaryFieldOp::LessThanEquals serde::Deserializable<Acir::BinaryFieldOp::LessThanEquals>::deserialize(
    Deserializer& deserializer)
{
    Acir::BinaryFieldOp::LessThanEquals obj;
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BinaryIntOp& lhs, const BinaryIntOp& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BinaryIntOp::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BinaryIntOp>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BinaryIntOp BinaryIntOp::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BinaryIntOp>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BinaryIntOp>::serialize(const Acir::BinaryIntOp& obj, Serializer& serializer)
{
    serializer.increase_container_depth();
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
    serializer.decrease_container_depth();
}
 
template <>
template <typename Deserializer>
Acir::BinaryIntOp serde::Deserializable<Acir::BinaryIntOp>::deserialize(Deserializer& deserializer)
{
    deserializer.increase_container_depth();
    Acir::BinaryIntOp obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    deserializer.decrease_container_depth();
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BinaryIntOp::Add& lhs, const BinaryIntOp::Add& rhs)
{
    return true;
}
 
inline std::vector<uint8_t> BinaryIntOp::Add::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BinaryIntOp::Add>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BinaryIntOp::Add BinaryIntOp::Add::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BinaryIntOp::Add>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BinaryIntOp::Add>::serialize(const Acir::BinaryIntOp::Add& obj, Serializer& serializer)
{}
 
template <>
template <typename Deserializer>
Acir::BinaryIntOp::Add serde::Deserializable<Acir::BinaryIntOp::Add>::deserialize(Deserializer& deserializer)
{
    Acir::BinaryIntOp::Add obj;
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BinaryIntOp::Sub& lhs, const BinaryIntOp::Sub& rhs)
{
    return true;
}
 
inline std::vector<uint8_t> BinaryIntOp::Sub::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BinaryIntOp::Sub>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BinaryIntOp::Sub BinaryIntOp::Sub::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BinaryIntOp::Sub>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BinaryIntOp::Sub>::serialize(const Acir::BinaryIntOp::Sub& obj, Serializer& serializer)
{}
 
template <>
template <typename Deserializer>
Acir::BinaryIntOp::Sub serde::Deserializable<Acir::BinaryIntOp::Sub>::deserialize(Deserializer& deserializer)
{
    Acir::BinaryIntOp::Sub obj;
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BinaryIntOp::Mul& lhs, const BinaryIntOp::Mul& rhs)
{
    return true;
}
 
inline std::vector<uint8_t> BinaryIntOp::Mul::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BinaryIntOp::Mul>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BinaryIntOp::Mul BinaryIntOp::Mul::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BinaryIntOp::Mul>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BinaryIntOp::Mul>::serialize(const Acir::BinaryIntOp::Mul& obj, Serializer& serializer)
{}
 
template <>
template <typename Deserializer>
Acir::BinaryIntOp::Mul serde::Deserializable<Acir::BinaryIntOp::Mul>::deserialize(Deserializer& deserializer)
{
    Acir::BinaryIntOp::Mul obj;
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BinaryIntOp::Div& lhs, const BinaryIntOp::Div& rhs)
{
    return true;
}
 
inline std::vector<uint8_t> BinaryIntOp::Div::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BinaryIntOp::Div>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BinaryIntOp::Div BinaryIntOp::Div::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BinaryIntOp::Div>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BinaryIntOp::Div>::serialize(const Acir::BinaryIntOp::Div& obj, Serializer& serializer)
{}
 
template <>
template <typename Deserializer>
Acir::BinaryIntOp::Div serde::Deserializable<Acir::BinaryIntOp::Div>::deserialize(Deserializer& deserializer)
{
    Acir::BinaryIntOp::Div obj;
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BinaryIntOp::Equals& lhs, const BinaryIntOp::Equals& rhs)
{
    return true;
}
 
inline std::vector<uint8_t> BinaryIntOp::Equals::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BinaryIntOp::Equals>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BinaryIntOp::Equals BinaryIntOp::Equals::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BinaryIntOp::Equals>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BinaryIntOp::Equals>::serialize(const Acir::BinaryIntOp::Equals& obj,
                                                               Serializer& serializer)
{}
 
template <>
template <typename Deserializer>
Acir::BinaryIntOp::Equals serde::Deserializable<Acir::BinaryIntOp::Equals>::deserialize(Deserializer& deserializer)
{
    Acir::BinaryIntOp::Equals obj;
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BinaryIntOp::LessThan& lhs, const BinaryIntOp::LessThan& rhs)
{
    return true;
}
 
inline std::vector<uint8_t> BinaryIntOp::LessThan::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BinaryIntOp::LessThan>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BinaryIntOp::LessThan BinaryIntOp::LessThan::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BinaryIntOp::LessThan>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BinaryIntOp::LessThan>::serialize(const Acir::BinaryIntOp::LessThan& obj,
                                                                 Serializer& serializer)
{}
 
template <>
template <typename Deserializer>
Acir::BinaryIntOp::LessThan serde::Deserializable<Acir::BinaryIntOp::LessThan>::deserialize(Deserializer& deserializer)
{
    Acir::BinaryIntOp::LessThan obj;
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BinaryIntOp::LessThanEquals& lhs, const BinaryIntOp::LessThanEquals& rhs)
{
    return true;
}
 
inline std::vector<uint8_t> BinaryIntOp::LessThanEquals::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BinaryIntOp::LessThanEquals>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BinaryIntOp::LessThanEquals BinaryIntOp::LessThanEquals::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BinaryIntOp::LessThanEquals>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BinaryIntOp::LessThanEquals>::serialize(const Acir::BinaryIntOp::LessThanEquals& obj,
                                                                       Serializer& serializer)
{}
 
template <>
template <typename Deserializer>
Acir::BinaryIntOp::LessThanEquals serde::Deserializable<Acir::BinaryIntOp::LessThanEquals>::deserialize(
    Deserializer& deserializer)
{
    Acir::BinaryIntOp::LessThanEquals obj;
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BinaryIntOp::And& lhs, const BinaryIntOp::And& rhs)
{
    return true;
}
 
inline std::vector<uint8_t> BinaryIntOp::And::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BinaryIntOp::And>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BinaryIntOp::And BinaryIntOp::And::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BinaryIntOp::And>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BinaryIntOp::And>::serialize(const Acir::BinaryIntOp::And& obj, Serializer& serializer)
{}
 
template <>
template <typename Deserializer>
Acir::BinaryIntOp::And serde::Deserializable<Acir::BinaryIntOp::And>::deserialize(Deserializer& deserializer)
{
    Acir::BinaryIntOp::And obj;
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BinaryIntOp::Or& lhs, const BinaryIntOp::Or& rhs)
{
    return true;
}
 
inline std::vector<uint8_t> BinaryIntOp::Or::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BinaryIntOp::Or>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BinaryIntOp::Or BinaryIntOp::Or::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BinaryIntOp::Or>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BinaryIntOp::Or>::serialize(const Acir::BinaryIntOp::Or& obj, Serializer& serializer)
{}
 
template <>
template <typename Deserializer>
Acir::BinaryIntOp::Or serde::Deserializable<Acir::BinaryIntOp::Or>::deserialize(Deserializer& deserializer)
{
    Acir::BinaryIntOp::Or obj;
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BinaryIntOp::Xor& lhs, const BinaryIntOp::Xor& rhs)
{
    return true;
}
 
inline std::vector<uint8_t> BinaryIntOp::Xor::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BinaryIntOp::Xor>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BinaryIntOp::Xor BinaryIntOp::Xor::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BinaryIntOp::Xor>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BinaryIntOp::Xor>::serialize(const Acir::BinaryIntOp::Xor& obj, Serializer& serializer)
{}
 
template <>
template <typename Deserializer>
Acir::BinaryIntOp::Xor serde::Deserializable<Acir::BinaryIntOp::Xor>::deserialize(Deserializer& deserializer)
{
    Acir::BinaryIntOp::Xor obj;
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BinaryIntOp::Shl& lhs, const BinaryIntOp::Shl& rhs)
{
    return true;
}
 
inline std::vector<uint8_t> BinaryIntOp::Shl::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BinaryIntOp::Shl>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BinaryIntOp::Shl BinaryIntOp::Shl::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BinaryIntOp::Shl>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BinaryIntOp::Shl>::serialize(const Acir::BinaryIntOp::Shl& obj, Serializer& serializer)
{}
 
template <>
template <typename Deserializer>
Acir::BinaryIntOp::Shl serde::Deserializable<Acir::BinaryIntOp::Shl>::deserialize(Deserializer& deserializer)
{
    Acir::BinaryIntOp::Shl obj;
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BinaryIntOp::Shr& lhs, const BinaryIntOp::Shr& rhs)
{
    return true;
}
 
inline std::vector<uint8_t> BinaryIntOp::Shr::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BinaryIntOp::Shr>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BinaryIntOp::Shr BinaryIntOp::Shr::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BinaryIntOp::Shr>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BinaryIntOp::Shr>::serialize(const Acir::BinaryIntOp::Shr& obj, Serializer& serializer)
{}
 
template <>
template <typename Deserializer>
Acir::BinaryIntOp::Shr serde::Deserializable<Acir::BinaryIntOp::Shr>::deserialize(Deserializer& deserializer)
{
    Acir::BinaryIntOp::Shr obj;
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BitSize& lhs, const BitSize& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BitSize::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BitSize>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BitSize BitSize::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BitSize>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BitSize>::serialize(const Acir::BitSize& obj, Serializer& serializer)
{
    serializer.increase_container_depth();
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
    serializer.decrease_container_depth();
}
 
template <>
template <typename Deserializer>
Acir::BitSize serde::Deserializable<Acir::BitSize>::deserialize(Deserializer& deserializer)
{
    deserializer.increase_container_depth();
    Acir::BitSize obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    deserializer.decrease_container_depth();
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BitSize::Field& lhs, const BitSize::Field& rhs)
{
    return true;
}
 
inline std::vector<uint8_t> BitSize::Field::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BitSize::Field>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BitSize::Field BitSize::Field::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BitSize::Field>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BitSize::Field>::serialize(const Acir::BitSize::Field& obj, Serializer& serializer)
{}
 
template <>
template <typename Deserializer>
Acir::BitSize::Field serde::Deserializable<Acir::BitSize::Field>::deserialize(Deserializer& deserializer)
{
    Acir::BitSize::Field obj;
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BitSize::Integer& lhs, const BitSize::Integer& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BitSize::Integer::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BitSize::Integer>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BitSize::Integer BitSize::Integer::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BitSize::Integer>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BitSize::Integer>::serialize(const Acir::BitSize::Integer& obj, Serializer& serializer)
{
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BitSize::Integer serde::Deserializable<Acir::BitSize::Integer>::deserialize(Deserializer& deserializer)
{
    Acir::BitSize::Integer obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BlackBoxFuncCall& lhs, const BlackBoxFuncCall& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BlackBoxFuncCall::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BlackBoxFuncCall>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BlackBoxFuncCall BlackBoxFuncCall::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BlackBoxFuncCall>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BlackBoxFuncCall>::serialize(const Acir::BlackBoxFuncCall& obj, Serializer& serializer)
{
    serializer.increase_container_depth();
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
    serializer.decrease_container_depth();
}
 
template <>
template <typename Deserializer>
Acir::BlackBoxFuncCall serde::Deserializable<Acir::BlackBoxFuncCall>::deserialize(Deserializer& deserializer)
{
    deserializer.increase_container_depth();
    Acir::BlackBoxFuncCall obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    deserializer.decrease_container_depth();
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BlackBoxFuncCall::AES128Encrypt& lhs, const BlackBoxFuncCall::AES128Encrypt& rhs)
{
    if (!(lhs.inputs == rhs.inputs)) {
        return false;
    }
    if (!(lhs.iv == rhs.iv)) {
        return false;
    }
    if (!(lhs.key == rhs.key)) {
        return false;
    }
    if (!(lhs.outputs == rhs.outputs)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BlackBoxFuncCall::AES128Encrypt::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BlackBoxFuncCall::AES128Encrypt>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BlackBoxFuncCall::AES128Encrypt BlackBoxFuncCall::AES128Encrypt::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BlackBoxFuncCall::AES128Encrypt>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BlackBoxFuncCall::AES128Encrypt>::serialize(
    const Acir::BlackBoxFuncCall::AES128Encrypt& obj, Serializer& serializer)
{
    serde::Serializable<decltype(obj.inputs)>::serialize(obj.inputs, serializer);
    serde::Serializable<decltype(obj.iv)>::serialize(obj.iv, serializer);
    serde::Serializable<decltype(obj.key)>::serialize(obj.key, serializer);
    serde::Serializable<decltype(obj.outputs)>::serialize(obj.outputs, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BlackBoxFuncCall::AES128Encrypt serde::Deserializable<Acir::BlackBoxFuncCall::AES128Encrypt>::deserialize(
    Deserializer& deserializer)
{
    Acir::BlackBoxFuncCall::AES128Encrypt obj;
    obj.inputs = serde::Deserializable<decltype(obj.inputs)>::deserialize(deserializer);
    obj.iv = serde::Deserializable<decltype(obj.iv)>::deserialize(deserializer);
    obj.key = serde::Deserializable<decltype(obj.key)>::deserialize(deserializer);
    obj.outputs = serde::Deserializable<decltype(obj.outputs)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BlackBoxFuncCall::AND& lhs, const BlackBoxFuncCall::AND& rhs)
{
    if (!(lhs.lhs == rhs.lhs)) {
        return false;
    }
    if (!(lhs.rhs == rhs.rhs)) {
        return false;
    }
    if (!(lhs.num_bits == rhs.num_bits)) {
        return false;
    }
    if (!(lhs.output == rhs.output)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BlackBoxFuncCall::AND::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BlackBoxFuncCall::AND>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BlackBoxFuncCall::AND BlackBoxFuncCall::AND::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BlackBoxFuncCall::AND>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BlackBoxFuncCall::AND>::serialize(const Acir::BlackBoxFuncCall::AND& obj,
                                                                 Serializer& serializer)
{
    serde::Serializable<decltype(obj.lhs)>::serialize(obj.lhs, serializer);
    serde::Serializable<decltype(obj.rhs)>::serialize(obj.rhs, serializer);
    serde::Serializable<decltype(obj.num_bits)>::serialize(obj.num_bits, serializer);
    serde::Serializable<decltype(obj.output)>::serialize(obj.output, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BlackBoxFuncCall::AND serde::Deserializable<Acir::BlackBoxFuncCall::AND>::deserialize(Deserializer& deserializer)
{
    Acir::BlackBoxFuncCall::AND obj;
    obj.lhs = serde::Deserializable<decltype(obj.lhs)>::deserialize(deserializer);
    obj.rhs = serde::Deserializable<decltype(obj.rhs)>::deserialize(deserializer);
    obj.num_bits = serde::Deserializable<decltype(obj.num_bits)>::deserialize(deserializer);
    obj.output = serde::Deserializable<decltype(obj.output)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BlackBoxFuncCall::XOR& lhs, const BlackBoxFuncCall::XOR& rhs)
{
    if (!(lhs.lhs == rhs.lhs)) {
        return false;
    }
    if (!(lhs.rhs == rhs.rhs)) {
        return false;
    }
    if (!(lhs.num_bits == rhs.num_bits)) {
        return false;
    }
    if (!(lhs.output == rhs.output)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BlackBoxFuncCall::XOR::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BlackBoxFuncCall::XOR>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BlackBoxFuncCall::XOR BlackBoxFuncCall::XOR::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BlackBoxFuncCall::XOR>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BlackBoxFuncCall::XOR>::serialize(const Acir::BlackBoxFuncCall::XOR& obj,
                                                                 Serializer& serializer)
{
    serde::Serializable<decltype(obj.lhs)>::serialize(obj.lhs, serializer);
    serde::Serializable<decltype(obj.rhs)>::serialize(obj.rhs, serializer);
    serde::Serializable<decltype(obj.num_bits)>::serialize(obj.num_bits, serializer);
    serde::Serializable<decltype(obj.output)>::serialize(obj.output, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BlackBoxFuncCall::XOR serde::Deserializable<Acir::BlackBoxFuncCall::XOR>::deserialize(Deserializer& deserializer)
{
    Acir::BlackBoxFuncCall::XOR obj;
    obj.lhs = serde::Deserializable<decltype(obj.lhs)>::deserialize(deserializer);
    obj.rhs = serde::Deserializable<decltype(obj.rhs)>::deserialize(deserializer);
    obj.num_bits = serde::Deserializable<decltype(obj.num_bits)>::deserialize(deserializer);
    obj.output = serde::Deserializable<decltype(obj.output)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BlackBoxFuncCall::RANGE& lhs, const BlackBoxFuncCall::RANGE& rhs)
{
    if (!(lhs.input == rhs.input)) {
        return false;
    }
    if (!(lhs.num_bits == rhs.num_bits)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BlackBoxFuncCall::RANGE::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BlackBoxFuncCall::RANGE>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BlackBoxFuncCall::RANGE BlackBoxFuncCall::RANGE::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BlackBoxFuncCall::RANGE>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BlackBoxFuncCall::RANGE>::serialize(const Acir::BlackBoxFuncCall::RANGE& obj,
                                                                   Serializer& serializer)
{
    serde::Serializable<decltype(obj.input)>::serialize(obj.input, serializer);
    serde::Serializable<decltype(obj.num_bits)>::serialize(obj.num_bits, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BlackBoxFuncCall::RANGE serde::Deserializable<Acir::BlackBoxFuncCall::RANGE>::deserialize(
    Deserializer& deserializer)
{
    Acir::BlackBoxFuncCall::RANGE obj;
    obj.input = serde::Deserializable<decltype(obj.input)>::deserialize(deserializer);
    obj.num_bits = serde::Deserializable<decltype(obj.num_bits)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BlackBoxFuncCall::Blake2s& lhs, const BlackBoxFuncCall::Blake2s& rhs)
{
    if (!(lhs.inputs == rhs.inputs)) {
        return false;
    }
    if (!(lhs.outputs == rhs.outputs)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BlackBoxFuncCall::Blake2s::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BlackBoxFuncCall::Blake2s>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BlackBoxFuncCall::Blake2s BlackBoxFuncCall::Blake2s::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BlackBoxFuncCall::Blake2s>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BlackBoxFuncCall::Blake2s>::serialize(const Acir::BlackBoxFuncCall::Blake2s& obj,
                                                                     Serializer& serializer)
{
    serde::Serializable<decltype(obj.inputs)>::serialize(obj.inputs, serializer);
    serde::Serializable<decltype(obj.outputs)>::serialize(obj.outputs, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BlackBoxFuncCall::Blake2s serde::Deserializable<Acir::BlackBoxFuncCall::Blake2s>::deserialize(
    Deserializer& deserializer)
{
    Acir::BlackBoxFuncCall::Blake2s obj;
    obj.inputs = serde::Deserializable<decltype(obj.inputs)>::deserialize(deserializer);
    obj.outputs = serde::Deserializable<decltype(obj.outputs)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BlackBoxFuncCall::Blake3& lhs, const BlackBoxFuncCall::Blake3& rhs)
{
    if (!(lhs.inputs == rhs.inputs)) {
        return false;
    }
    if (!(lhs.outputs == rhs.outputs)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BlackBoxFuncCall::Blake3::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BlackBoxFuncCall::Blake3>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BlackBoxFuncCall::Blake3 BlackBoxFuncCall::Blake3::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BlackBoxFuncCall::Blake3>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BlackBoxFuncCall::Blake3>::serialize(const Acir::BlackBoxFuncCall::Blake3& obj,
                                                                    Serializer& serializer)
{
    serde::Serializable<decltype(obj.inputs)>::serialize(obj.inputs, serializer);
    serde::Serializable<decltype(obj.outputs)>::serialize(obj.outputs, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BlackBoxFuncCall::Blake3 serde::Deserializable<Acir::BlackBoxFuncCall::Blake3>::deserialize(
    Deserializer& deserializer)
{
    Acir::BlackBoxFuncCall::Blake3 obj;
    obj.inputs = serde::Deserializable<decltype(obj.inputs)>::deserialize(deserializer);
    obj.outputs = serde::Deserializable<decltype(obj.outputs)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BlackBoxFuncCall::EcdsaSecp256k1& lhs, const BlackBoxFuncCall::EcdsaSecp256k1& rhs)
{
    if (!(lhs.public_key_x == rhs.public_key_x)) {
        return false;
    }
    if (!(lhs.public_key_y == rhs.public_key_y)) {
        return false;
    }
    if (!(lhs.signature == rhs.signature)) {
        return false;
    }
    if (!(lhs.hashed_message == rhs.hashed_message)) {
        return false;
    }
    if (!(lhs.predicate == rhs.predicate)) {
        return false;
    }
    if (!(lhs.output == rhs.output)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BlackBoxFuncCall::EcdsaSecp256k1::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BlackBoxFuncCall::EcdsaSecp256k1>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BlackBoxFuncCall::EcdsaSecp256k1 BlackBoxFuncCall::EcdsaSecp256k1::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BlackBoxFuncCall::EcdsaSecp256k1>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BlackBoxFuncCall::EcdsaSecp256k1>::serialize(
    const Acir::BlackBoxFuncCall::EcdsaSecp256k1& obj, Serializer& serializer)
{
    serde::Serializable<decltype(obj.public_key_x)>::serialize(obj.public_key_x, serializer);
    serde::Serializable<decltype(obj.public_key_y)>::serialize(obj.public_key_y, serializer);
    serde::Serializable<decltype(obj.signature)>::serialize(obj.signature, serializer);
    serde::Serializable<decltype(obj.hashed_message)>::serialize(obj.hashed_message, serializer);
    serde::Serializable<decltype(obj.predicate)>::serialize(obj.predicate, serializer);
    serde::Serializable<decltype(obj.output)>::serialize(obj.output, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BlackBoxFuncCall::EcdsaSecp256k1 serde::Deserializable<Acir::BlackBoxFuncCall::EcdsaSecp256k1>::deserialize(
    Deserializer& deserializer)
{
    Acir::BlackBoxFuncCall::EcdsaSecp256k1 obj;
    obj.public_key_x = serde::Deserializable<decltype(obj.public_key_x)>::deserialize(deserializer);
    obj.public_key_y = serde::Deserializable<decltype(obj.public_key_y)>::deserialize(deserializer);
    obj.signature = serde::Deserializable<decltype(obj.signature)>::deserialize(deserializer);
    obj.hashed_message = serde::Deserializable<decltype(obj.hashed_message)>::deserialize(deserializer);
    obj.predicate = serde::Deserializable<decltype(obj.predicate)>::deserialize(deserializer);
    obj.output = serde::Deserializable<decltype(obj.output)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BlackBoxFuncCall::EcdsaSecp256r1& lhs, const BlackBoxFuncCall::EcdsaSecp256r1& rhs)
{
    if (!(lhs.public_key_x == rhs.public_key_x)) {
        return false;
    }
    if (!(lhs.public_key_y == rhs.public_key_y)) {
        return false;
    }
    if (!(lhs.signature == rhs.signature)) {
        return false;
    }
    if (!(lhs.hashed_message == rhs.hashed_message)) {
        return false;
    }
    if (!(lhs.predicate == rhs.predicate)) {
        return false;
    }
    if (!(lhs.output == rhs.output)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BlackBoxFuncCall::EcdsaSecp256r1::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BlackBoxFuncCall::EcdsaSecp256r1>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BlackBoxFuncCall::EcdsaSecp256r1 BlackBoxFuncCall::EcdsaSecp256r1::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BlackBoxFuncCall::EcdsaSecp256r1>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BlackBoxFuncCall::EcdsaSecp256r1>::serialize(
    const Acir::BlackBoxFuncCall::EcdsaSecp256r1& obj, Serializer& serializer)
{
    serde::Serializable<decltype(obj.public_key_x)>::serialize(obj.public_key_x, serializer);
    serde::Serializable<decltype(obj.public_key_y)>::serialize(obj.public_key_y, serializer);
    serde::Serializable<decltype(obj.signature)>::serialize(obj.signature, serializer);
    serde::Serializable<decltype(obj.hashed_message)>::serialize(obj.hashed_message, serializer);
    serde::Serializable<decltype(obj.predicate)>::serialize(obj.predicate, serializer);
    serde::Serializable<decltype(obj.output)>::serialize(obj.output, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BlackBoxFuncCall::EcdsaSecp256r1 serde::Deserializable<Acir::BlackBoxFuncCall::EcdsaSecp256r1>::deserialize(
    Deserializer& deserializer)
{
    Acir::BlackBoxFuncCall::EcdsaSecp256r1 obj;
    obj.public_key_x = serde::Deserializable<decltype(obj.public_key_x)>::deserialize(deserializer);
    obj.public_key_y = serde::Deserializable<decltype(obj.public_key_y)>::deserialize(deserializer);
    obj.signature = serde::Deserializable<decltype(obj.signature)>::deserialize(deserializer);
    obj.hashed_message = serde::Deserializable<decltype(obj.hashed_message)>::deserialize(deserializer);
    obj.predicate = serde::Deserializable<decltype(obj.predicate)>::deserialize(deserializer);
    obj.output = serde::Deserializable<decltype(obj.output)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BlackBoxFuncCall::MultiScalarMul& lhs, const BlackBoxFuncCall::MultiScalarMul& rhs)
{
    if (!(lhs.points == rhs.points)) {
        return false;
    }
    if (!(lhs.scalars == rhs.scalars)) {
        return false;
    }
    if (!(lhs.predicate == rhs.predicate)) {
        return false;
    }
    if (!(lhs.outputs == rhs.outputs)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BlackBoxFuncCall::MultiScalarMul::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BlackBoxFuncCall::MultiScalarMul>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BlackBoxFuncCall::MultiScalarMul BlackBoxFuncCall::MultiScalarMul::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BlackBoxFuncCall::MultiScalarMul>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BlackBoxFuncCall::MultiScalarMul>::serialize(
    const Acir::BlackBoxFuncCall::MultiScalarMul& obj, Serializer& serializer)
{
    serde::Serializable<decltype(obj.points)>::serialize(obj.points, serializer);
    serde::Serializable<decltype(obj.scalars)>::serialize(obj.scalars, serializer);
    serde::Serializable<decltype(obj.predicate)>::serialize(obj.predicate, serializer);
    serde::Serializable<decltype(obj.outputs)>::serialize(obj.outputs, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BlackBoxFuncCall::MultiScalarMul serde::Deserializable<Acir::BlackBoxFuncCall::MultiScalarMul>::deserialize(
    Deserializer& deserializer)
{
    Acir::BlackBoxFuncCall::MultiScalarMul obj;
    obj.points = serde::Deserializable<decltype(obj.points)>::deserialize(deserializer);
    obj.scalars = serde::Deserializable<decltype(obj.scalars)>::deserialize(deserializer);
    obj.predicate = serde::Deserializable<decltype(obj.predicate)>::deserialize(deserializer);
    obj.outputs = serde::Deserializable<decltype(obj.outputs)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BlackBoxFuncCall::EmbeddedCurveAdd& lhs, const BlackBoxFuncCall::EmbeddedCurveAdd& rhs)
{
    if (!(lhs.input1 == rhs.input1)) {
        return false;
    }
    if (!(lhs.input2 == rhs.input2)) {
        return false;
    }
    if (!(lhs.predicate == rhs.predicate)) {
        return false;
    }
    if (!(lhs.outputs == rhs.outputs)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BlackBoxFuncCall::EmbeddedCurveAdd::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BlackBoxFuncCall::EmbeddedCurveAdd>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BlackBoxFuncCall::EmbeddedCurveAdd BlackBoxFuncCall::EmbeddedCurveAdd::bincodeDeserialize(
    std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BlackBoxFuncCall::EmbeddedCurveAdd>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BlackBoxFuncCall::EmbeddedCurveAdd>::serialize(
    const Acir::BlackBoxFuncCall::EmbeddedCurveAdd& obj, Serializer& serializer)
{
    serde::Serializable<decltype(obj.input1)>::serialize(obj.input1, serializer);
    serde::Serializable<decltype(obj.input2)>::serialize(obj.input2, serializer);
    serde::Serializable<decltype(obj.predicate)>::serialize(obj.predicate, serializer);
    serde::Serializable<decltype(obj.outputs)>::serialize(obj.outputs, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BlackBoxFuncCall::EmbeddedCurveAdd serde::Deserializable<Acir::BlackBoxFuncCall::EmbeddedCurveAdd>::deserialize(
    Deserializer& deserializer)
{
    Acir::BlackBoxFuncCall::EmbeddedCurveAdd obj;
    obj.input1 = serde::Deserializable<decltype(obj.input1)>::deserialize(deserializer);
    obj.input2 = serde::Deserializable<decltype(obj.input2)>::deserialize(deserializer);
    obj.predicate = serde::Deserializable<decltype(obj.predicate)>::deserialize(deserializer);
    obj.outputs = serde::Deserializable<decltype(obj.outputs)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BlackBoxFuncCall::Keccakf1600& lhs, const BlackBoxFuncCall::Keccakf1600& rhs)
{
    if (!(lhs.inputs == rhs.inputs)) {
        return false;
    }
    if (!(lhs.outputs == rhs.outputs)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BlackBoxFuncCall::Keccakf1600::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BlackBoxFuncCall::Keccakf1600>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BlackBoxFuncCall::Keccakf1600 BlackBoxFuncCall::Keccakf1600::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BlackBoxFuncCall::Keccakf1600>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BlackBoxFuncCall::Keccakf1600>::serialize(const Acir::BlackBoxFuncCall::Keccakf1600& obj,
                                                                         Serializer& serializer)
{
    serde::Serializable<decltype(obj.inputs)>::serialize(obj.inputs, serializer);
    serde::Serializable<decltype(obj.outputs)>::serialize(obj.outputs, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BlackBoxFuncCall::Keccakf1600 serde::Deserializable<Acir::BlackBoxFuncCall::Keccakf1600>::deserialize(
    Deserializer& deserializer)
{
    Acir::BlackBoxFuncCall::Keccakf1600 obj;
    obj.inputs = serde::Deserializable<decltype(obj.inputs)>::deserialize(deserializer);
    obj.outputs = serde::Deserializable<decltype(obj.outputs)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BlackBoxFuncCall::RecursiveAggregation& lhs,
                       const BlackBoxFuncCall::RecursiveAggregation& rhs)
{
    if (!(lhs.verification_key == rhs.verification_key)) {
        return false;
    }
    if (!(lhs.proof == rhs.proof)) {
        return false;
    }
    if (!(lhs.public_inputs == rhs.public_inputs)) {
        return false;
    }
    if (!(lhs.key_hash == rhs.key_hash)) {
        return false;
    }
    if (!(lhs.proof_type == rhs.proof_type)) {
        return false;
    }
    if (!(lhs.predicate == rhs.predicate)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BlackBoxFuncCall::RecursiveAggregation::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BlackBoxFuncCall::RecursiveAggregation>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BlackBoxFuncCall::RecursiveAggregation BlackBoxFuncCall::RecursiveAggregation::bincodeDeserialize(
    std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BlackBoxFuncCall::RecursiveAggregation>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BlackBoxFuncCall::RecursiveAggregation>::serialize(
    const Acir::BlackBoxFuncCall::RecursiveAggregation& obj, Serializer& serializer)
{
    serde::Serializable<decltype(obj.verification_key)>::serialize(obj.verification_key, serializer);
    serde::Serializable<decltype(obj.proof)>::serialize(obj.proof, serializer);
    serde::Serializable<decltype(obj.public_inputs)>::serialize(obj.public_inputs, serializer);
    serde::Serializable<decltype(obj.key_hash)>::serialize(obj.key_hash, serializer);
    serde::Serializable<decltype(obj.proof_type)>::serialize(obj.proof_type, serializer);
    serde::Serializable<decltype(obj.predicate)>::serialize(obj.predicate, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BlackBoxFuncCall::RecursiveAggregation serde::Deserializable<
    Acir::BlackBoxFuncCall::RecursiveAggregation>::deserialize(Deserializer& deserializer)
{
    Acir::BlackBoxFuncCall::RecursiveAggregation obj;
    obj.verification_key = serde::Deserializable<decltype(obj.verification_key)>::deserialize(deserializer);
    obj.proof = serde::Deserializable<decltype(obj.proof)>::deserialize(deserializer);
    obj.public_inputs = serde::Deserializable<decltype(obj.public_inputs)>::deserialize(deserializer);
    obj.key_hash = serde::Deserializable<decltype(obj.key_hash)>::deserialize(deserializer);
    obj.proof_type = serde::Deserializable<decltype(obj.proof_type)>::deserialize(deserializer);
    obj.predicate = serde::Deserializable<decltype(obj.predicate)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BlackBoxFuncCall::Poseidon2Permutation& lhs,
                       const BlackBoxFuncCall::Poseidon2Permutation& rhs)
{
    if (!(lhs.inputs == rhs.inputs)) {
        return false;
    }
    if (!(lhs.outputs == rhs.outputs)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BlackBoxFuncCall::Poseidon2Permutation::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BlackBoxFuncCall::Poseidon2Permutation>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BlackBoxFuncCall::Poseidon2Permutation BlackBoxFuncCall::Poseidon2Permutation::bincodeDeserialize(
    std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BlackBoxFuncCall::Poseidon2Permutation>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BlackBoxFuncCall::Poseidon2Permutation>::serialize(
    const Acir::BlackBoxFuncCall::Poseidon2Permutation& obj, Serializer& serializer)
{
    serde::Serializable<decltype(obj.inputs)>::serialize(obj.inputs, serializer);
    serde::Serializable<decltype(obj.outputs)>::serialize(obj.outputs, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BlackBoxFuncCall::Poseidon2Permutation serde::Deserializable<
    Acir::BlackBoxFuncCall::Poseidon2Permutation>::deserialize(Deserializer& deserializer)
{
    Acir::BlackBoxFuncCall::Poseidon2Permutation obj;
    obj.inputs = serde::Deserializable<decltype(obj.inputs)>::deserialize(deserializer);
    obj.outputs = serde::Deserializable<decltype(obj.outputs)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BlackBoxFuncCall::Sha256Compression& lhs, const BlackBoxFuncCall::Sha256Compression& rhs)
{
    if (!(lhs.inputs == rhs.inputs)) {
        return false;
    }
    if (!(lhs.hash_values == rhs.hash_values)) {
        return false;
    }
    if (!(lhs.outputs == rhs.outputs)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BlackBoxFuncCall::Sha256Compression::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BlackBoxFuncCall::Sha256Compression>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BlackBoxFuncCall::Sha256Compression BlackBoxFuncCall::Sha256Compression::bincodeDeserialize(
    std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BlackBoxFuncCall::Sha256Compression>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BlackBoxFuncCall::Sha256Compression>::serialize(
    const Acir::BlackBoxFuncCall::Sha256Compression& obj, Serializer& serializer)
{
    serde::Serializable<decltype(obj.inputs)>::serialize(obj.inputs, serializer);
    serde::Serializable<decltype(obj.hash_values)>::serialize(obj.hash_values, serializer);
    serde::Serializable<decltype(obj.outputs)>::serialize(obj.outputs, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BlackBoxFuncCall::Sha256Compression serde::Deserializable<Acir::BlackBoxFuncCall::Sha256Compression>::deserialize(
    Deserializer& deserializer)
{
    Acir::BlackBoxFuncCall::Sha256Compression obj;
    obj.inputs = serde::Deserializable<decltype(obj.inputs)>::deserialize(deserializer);
    obj.hash_values = serde::Deserializable<decltype(obj.hash_values)>::deserialize(deserializer);
    obj.outputs = serde::Deserializable<decltype(obj.outputs)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BlackBoxOp& lhs, const BlackBoxOp& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BlackBoxOp::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BlackBoxOp>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BlackBoxOp BlackBoxOp::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BlackBoxOp>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BlackBoxOp>::serialize(const Acir::BlackBoxOp& obj, Serializer& serializer)
{
    serializer.increase_container_depth();
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
    serializer.decrease_container_depth();
}
 
template <>
template <typename Deserializer>
Acir::BlackBoxOp serde::Deserializable<Acir::BlackBoxOp>::deserialize(Deserializer& deserializer)
{
    deserializer.increase_container_depth();
    Acir::BlackBoxOp obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    deserializer.decrease_container_depth();
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BlackBoxOp::AES128Encrypt& lhs, const BlackBoxOp::AES128Encrypt& rhs)
{
    if (!(lhs.inputs == rhs.inputs)) {
        return false;
    }
    if (!(lhs.iv == rhs.iv)) {
        return false;
    }
    if (!(lhs.key == rhs.key)) {
        return false;
    }
    if (!(lhs.outputs == rhs.outputs)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BlackBoxOp::AES128Encrypt::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BlackBoxOp::AES128Encrypt>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BlackBoxOp::AES128Encrypt BlackBoxOp::AES128Encrypt::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BlackBoxOp::AES128Encrypt>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BlackBoxOp::AES128Encrypt>::serialize(const Acir::BlackBoxOp::AES128Encrypt& obj,
                                                                     Serializer& serializer)
{
    serde::Serializable<decltype(obj.inputs)>::serialize(obj.inputs, serializer);
    serde::Serializable<decltype(obj.iv)>::serialize(obj.iv, serializer);
    serde::Serializable<decltype(obj.key)>::serialize(obj.key, serializer);
    serde::Serializable<decltype(obj.outputs)>::serialize(obj.outputs, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BlackBoxOp::AES128Encrypt serde::Deserializable<Acir::BlackBoxOp::AES128Encrypt>::deserialize(
    Deserializer& deserializer)
{
    Acir::BlackBoxOp::AES128Encrypt obj;
    obj.inputs = serde::Deserializable<decltype(obj.inputs)>::deserialize(deserializer);
    obj.iv = serde::Deserializable<decltype(obj.iv)>::deserialize(deserializer);
    obj.key = serde::Deserializable<decltype(obj.key)>::deserialize(deserializer);
    obj.outputs = serde::Deserializable<decltype(obj.outputs)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BlackBoxOp::Blake2s& lhs, const BlackBoxOp::Blake2s& rhs)
{
    if (!(lhs.message == rhs.message)) {
        return false;
    }
    if (!(lhs.output == rhs.output)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BlackBoxOp::Blake2s::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BlackBoxOp::Blake2s>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BlackBoxOp::Blake2s BlackBoxOp::Blake2s::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BlackBoxOp::Blake2s>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BlackBoxOp::Blake2s>::serialize(const Acir::BlackBoxOp::Blake2s& obj,
                                                               Serializer& serializer)
{
    serde::Serializable<decltype(obj.message)>::serialize(obj.message, serializer);
    serde::Serializable<decltype(obj.output)>::serialize(obj.output, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BlackBoxOp::Blake2s serde::Deserializable<Acir::BlackBoxOp::Blake2s>::deserialize(Deserializer& deserializer)
{
    Acir::BlackBoxOp::Blake2s obj;
    obj.message = serde::Deserializable<decltype(obj.message)>::deserialize(deserializer);
    obj.output = serde::Deserializable<decltype(obj.output)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BlackBoxOp::Blake3& lhs, const BlackBoxOp::Blake3& rhs)
{
    if (!(lhs.message == rhs.message)) {
        return false;
    }
    if (!(lhs.output == rhs.output)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BlackBoxOp::Blake3::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BlackBoxOp::Blake3>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BlackBoxOp::Blake3 BlackBoxOp::Blake3::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BlackBoxOp::Blake3>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BlackBoxOp::Blake3>::serialize(const Acir::BlackBoxOp::Blake3& obj,
                                                              Serializer& serializer)
{
    serde::Serializable<decltype(obj.message)>::serialize(obj.message, serializer);
    serde::Serializable<decltype(obj.output)>::serialize(obj.output, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BlackBoxOp::Blake3 serde::Deserializable<Acir::BlackBoxOp::Blake3>::deserialize(Deserializer& deserializer)
{
    Acir::BlackBoxOp::Blake3 obj;
    obj.message = serde::Deserializable<decltype(obj.message)>::deserialize(deserializer);
    obj.output = serde::Deserializable<decltype(obj.output)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BlackBoxOp::Keccakf1600& lhs, const BlackBoxOp::Keccakf1600& rhs)
{
    if (!(lhs.input == rhs.input)) {
        return false;
    }
    if (!(lhs.output == rhs.output)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BlackBoxOp::Keccakf1600::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BlackBoxOp::Keccakf1600>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BlackBoxOp::Keccakf1600 BlackBoxOp::Keccakf1600::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BlackBoxOp::Keccakf1600>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BlackBoxOp::Keccakf1600>::serialize(const Acir::BlackBoxOp::Keccakf1600& obj,
                                                                   Serializer& serializer)
{
    serde::Serializable<decltype(obj.input)>::serialize(obj.input, serializer);
    serde::Serializable<decltype(obj.output)>::serialize(obj.output, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BlackBoxOp::Keccakf1600 serde::Deserializable<Acir::BlackBoxOp::Keccakf1600>::deserialize(
    Deserializer& deserializer)
{
    Acir::BlackBoxOp::Keccakf1600 obj;
    obj.input = serde::Deserializable<decltype(obj.input)>::deserialize(deserializer);
    obj.output = serde::Deserializable<decltype(obj.output)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BlackBoxOp::EcdsaSecp256k1& lhs, const BlackBoxOp::EcdsaSecp256k1& rhs)
{
    if (!(lhs.hashed_msg == rhs.hashed_msg)) {
        return false;
    }
    if (!(lhs.public_key_x == rhs.public_key_x)) {
        return false;
    }
    if (!(lhs.public_key_y == rhs.public_key_y)) {
        return false;
    }
    if (!(lhs.signature == rhs.signature)) {
        return false;
    }
    if (!(lhs.result == rhs.result)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BlackBoxOp::EcdsaSecp256k1::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BlackBoxOp::EcdsaSecp256k1>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BlackBoxOp::EcdsaSecp256k1 BlackBoxOp::EcdsaSecp256k1::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BlackBoxOp::EcdsaSecp256k1>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BlackBoxOp::EcdsaSecp256k1>::serialize(const Acir::BlackBoxOp::EcdsaSecp256k1& obj,
                                                                      Serializer& serializer)
{
    serde::Serializable<decltype(obj.hashed_msg)>::serialize(obj.hashed_msg, serializer);
    serde::Serializable<decltype(obj.public_key_x)>::serialize(obj.public_key_x, serializer);
    serde::Serializable<decltype(obj.public_key_y)>::serialize(obj.public_key_y, serializer);
    serde::Serializable<decltype(obj.signature)>::serialize(obj.signature, serializer);
    serde::Serializable<decltype(obj.result)>::serialize(obj.result, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BlackBoxOp::EcdsaSecp256k1 serde::Deserializable<Acir::BlackBoxOp::EcdsaSecp256k1>::deserialize(
    Deserializer& deserializer)
{
    Acir::BlackBoxOp::EcdsaSecp256k1 obj;
    obj.hashed_msg = serde::Deserializable<decltype(obj.hashed_msg)>::deserialize(deserializer);
    obj.public_key_x = serde::Deserializable<decltype(obj.public_key_x)>::deserialize(deserializer);
    obj.public_key_y = serde::Deserializable<decltype(obj.public_key_y)>::deserialize(deserializer);
    obj.signature = serde::Deserializable<decltype(obj.signature)>::deserialize(deserializer);
    obj.result = serde::Deserializable<decltype(obj.result)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BlackBoxOp::EcdsaSecp256r1& lhs, const BlackBoxOp::EcdsaSecp256r1& rhs)
{
    if (!(lhs.hashed_msg == rhs.hashed_msg)) {
        return false;
    }
    if (!(lhs.public_key_x == rhs.public_key_x)) {
        return false;
    }
    if (!(lhs.public_key_y == rhs.public_key_y)) {
        return false;
    }
    if (!(lhs.signature == rhs.signature)) {
        return false;
    }
    if (!(lhs.result == rhs.result)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BlackBoxOp::EcdsaSecp256r1::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BlackBoxOp::EcdsaSecp256r1>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BlackBoxOp::EcdsaSecp256r1 BlackBoxOp::EcdsaSecp256r1::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BlackBoxOp::EcdsaSecp256r1>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BlackBoxOp::EcdsaSecp256r1>::serialize(const Acir::BlackBoxOp::EcdsaSecp256r1& obj,
                                                                      Serializer& serializer)
{
    serde::Serializable<decltype(obj.hashed_msg)>::serialize(obj.hashed_msg, serializer);
    serde::Serializable<decltype(obj.public_key_x)>::serialize(obj.public_key_x, serializer);
    serde::Serializable<decltype(obj.public_key_y)>::serialize(obj.public_key_y, serializer);
    serde::Serializable<decltype(obj.signature)>::serialize(obj.signature, serializer);
    serde::Serializable<decltype(obj.result)>::serialize(obj.result, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BlackBoxOp::EcdsaSecp256r1 serde::Deserializable<Acir::BlackBoxOp::EcdsaSecp256r1>::deserialize(
    Deserializer& deserializer)
{
    Acir::BlackBoxOp::EcdsaSecp256r1 obj;
    obj.hashed_msg = serde::Deserializable<decltype(obj.hashed_msg)>::deserialize(deserializer);
    obj.public_key_x = serde::Deserializable<decltype(obj.public_key_x)>::deserialize(deserializer);
    obj.public_key_y = serde::Deserializable<decltype(obj.public_key_y)>::deserialize(deserializer);
    obj.signature = serde::Deserializable<decltype(obj.signature)>::deserialize(deserializer);
    obj.result = serde::Deserializable<decltype(obj.result)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BlackBoxOp::MultiScalarMul& lhs, const BlackBoxOp::MultiScalarMul& rhs)
{
    if (!(lhs.points == rhs.points)) {
        return false;
    }
    if (!(lhs.scalars == rhs.scalars)) {
        return false;
    }
    if (!(lhs.outputs == rhs.outputs)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BlackBoxOp::MultiScalarMul::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BlackBoxOp::MultiScalarMul>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BlackBoxOp::MultiScalarMul BlackBoxOp::MultiScalarMul::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BlackBoxOp::MultiScalarMul>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BlackBoxOp::MultiScalarMul>::serialize(const Acir::BlackBoxOp::MultiScalarMul& obj,
                                                                      Serializer& serializer)
{
    serde::Serializable<decltype(obj.points)>::serialize(obj.points, serializer);
    serde::Serializable<decltype(obj.scalars)>::serialize(obj.scalars, serializer);
    serde::Serializable<decltype(obj.outputs)>::serialize(obj.outputs, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BlackBoxOp::MultiScalarMul serde::Deserializable<Acir::BlackBoxOp::MultiScalarMul>::deserialize(
    Deserializer& deserializer)
{
    Acir::BlackBoxOp::MultiScalarMul obj;
    obj.points = serde::Deserializable<decltype(obj.points)>::deserialize(deserializer);
    obj.scalars = serde::Deserializable<decltype(obj.scalars)>::deserialize(deserializer);
    obj.outputs = serde::Deserializable<decltype(obj.outputs)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BlackBoxOp::EmbeddedCurveAdd& lhs, const BlackBoxOp::EmbeddedCurveAdd& rhs)
{
    if (!(lhs.input1_x == rhs.input1_x)) {
        return false;
    }
    if (!(lhs.input1_y == rhs.input1_y)) {
        return false;
    }
    if (!(lhs.input1_infinite == rhs.input1_infinite)) {
        return false;
    }
    if (!(lhs.input2_x == rhs.input2_x)) {
        return false;
    }
    if (!(lhs.input2_y == rhs.input2_y)) {
        return false;
    }
    if (!(lhs.input2_infinite == rhs.input2_infinite)) {
        return false;
    }
    if (!(lhs.result == rhs.result)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BlackBoxOp::EmbeddedCurveAdd::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BlackBoxOp::EmbeddedCurveAdd>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BlackBoxOp::EmbeddedCurveAdd BlackBoxOp::EmbeddedCurveAdd::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BlackBoxOp::EmbeddedCurveAdd>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BlackBoxOp::EmbeddedCurveAdd>::serialize(const Acir::BlackBoxOp::EmbeddedCurveAdd& obj,
                                                                        Serializer& serializer)
{
    serde::Serializable<decltype(obj.input1_x)>::serialize(obj.input1_x, serializer);
    serde::Serializable<decltype(obj.input1_y)>::serialize(obj.input1_y, serializer);
    serde::Serializable<decltype(obj.input1_infinite)>::serialize(obj.input1_infinite, serializer);
    serde::Serializable<decltype(obj.input2_x)>::serialize(obj.input2_x, serializer);
    serde::Serializable<decltype(obj.input2_y)>::serialize(obj.input2_y, serializer);
    serde::Serializable<decltype(obj.input2_infinite)>::serialize(obj.input2_infinite, serializer);
    serde::Serializable<decltype(obj.result)>::serialize(obj.result, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BlackBoxOp::EmbeddedCurveAdd serde::Deserializable<Acir::BlackBoxOp::EmbeddedCurveAdd>::deserialize(
    Deserializer& deserializer)
{
    Acir::BlackBoxOp::EmbeddedCurveAdd obj;
    obj.input1_x = serde::Deserializable<decltype(obj.input1_x)>::deserialize(deserializer);
    obj.input1_y = serde::Deserializable<decltype(obj.input1_y)>::deserialize(deserializer);
    obj.input1_infinite = serde::Deserializable<decltype(obj.input1_infinite)>::deserialize(deserializer);
    obj.input2_x = serde::Deserializable<decltype(obj.input2_x)>::deserialize(deserializer);
    obj.input2_y = serde::Deserializable<decltype(obj.input2_y)>::deserialize(deserializer);
    obj.input2_infinite = serde::Deserializable<decltype(obj.input2_infinite)>::deserialize(deserializer);
    obj.result = serde::Deserializable<decltype(obj.result)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BlackBoxOp::Poseidon2Permutation& lhs, const BlackBoxOp::Poseidon2Permutation& rhs)
{
    if (!(lhs.message == rhs.message)) {
        return false;
    }
    if (!(lhs.output == rhs.output)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BlackBoxOp::Poseidon2Permutation::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BlackBoxOp::Poseidon2Permutation>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BlackBoxOp::Poseidon2Permutation BlackBoxOp::Poseidon2Permutation::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BlackBoxOp::Poseidon2Permutation>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BlackBoxOp::Poseidon2Permutation>::serialize(
    const Acir::BlackBoxOp::Poseidon2Permutation& obj, Serializer& serializer)
{
    serde::Serializable<decltype(obj.message)>::serialize(obj.message, serializer);
    serde::Serializable<decltype(obj.output)>::serialize(obj.output, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BlackBoxOp::Poseidon2Permutation serde::Deserializable<Acir::BlackBoxOp::Poseidon2Permutation>::deserialize(
    Deserializer& deserializer)
{
    Acir::BlackBoxOp::Poseidon2Permutation obj;
    obj.message = serde::Deserializable<decltype(obj.message)>::deserialize(deserializer);
    obj.output = serde::Deserializable<decltype(obj.output)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BlackBoxOp::Sha256Compression& lhs, const BlackBoxOp::Sha256Compression& rhs)
{
    if (!(lhs.input == rhs.input)) {
        return false;
    }
    if (!(lhs.hash_values == rhs.hash_values)) {
        return false;
    }
    if (!(lhs.output == rhs.output)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BlackBoxOp::Sha256Compression::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BlackBoxOp::Sha256Compression>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BlackBoxOp::Sha256Compression BlackBoxOp::Sha256Compression::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BlackBoxOp::Sha256Compression>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BlackBoxOp::Sha256Compression>::serialize(const Acir::BlackBoxOp::Sha256Compression& obj,
                                                                         Serializer& serializer)
{
    serde::Serializable<decltype(obj.input)>::serialize(obj.input, serializer);
    serde::Serializable<decltype(obj.hash_values)>::serialize(obj.hash_values, serializer);
    serde::Serializable<decltype(obj.output)>::serialize(obj.output, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BlackBoxOp::Sha256Compression serde::Deserializable<Acir::BlackBoxOp::Sha256Compression>::deserialize(
    Deserializer& deserializer)
{
    Acir::BlackBoxOp::Sha256Compression obj;
    obj.input = serde::Deserializable<decltype(obj.input)>::deserialize(deserializer);
    obj.hash_values = serde::Deserializable<decltype(obj.hash_values)>::deserialize(deserializer);
    obj.output = serde::Deserializable<decltype(obj.output)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BlackBoxOp::ToRadix& lhs, const BlackBoxOp::ToRadix& rhs)
{
    if (!(lhs.input == rhs.input)) {
        return false;
    }
    if (!(lhs.radix == rhs.radix)) {
        return false;
    }
    if (!(lhs.output_pointer == rhs.output_pointer)) {
        return false;
    }
    if (!(lhs.num_limbs == rhs.num_limbs)) {
        return false;
    }
    if (!(lhs.output_bits == rhs.output_bits)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BlackBoxOp::ToRadix::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BlackBoxOp::ToRadix>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BlackBoxOp::ToRadix BlackBoxOp::ToRadix::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BlackBoxOp::ToRadix>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BlackBoxOp::ToRadix>::serialize(const Acir::BlackBoxOp::ToRadix& obj,
                                                               Serializer& serializer)
{
    serde::Serializable<decltype(obj.input)>::serialize(obj.input, serializer);
    serde::Serializable<decltype(obj.radix)>::serialize(obj.radix, serializer);
    serde::Serializable<decltype(obj.output_pointer)>::serialize(obj.output_pointer, serializer);
    serde::Serializable<decltype(obj.num_limbs)>::serialize(obj.num_limbs, serializer);
    serde::Serializable<decltype(obj.output_bits)>::serialize(obj.output_bits, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BlackBoxOp::ToRadix serde::Deserializable<Acir::BlackBoxOp::ToRadix>::deserialize(Deserializer& deserializer)
{
    Acir::BlackBoxOp::ToRadix obj;
    obj.input = serde::Deserializable<decltype(obj.input)>::deserialize(deserializer);
    obj.radix = serde::Deserializable<decltype(obj.radix)>::deserialize(deserializer);
    obj.output_pointer = serde::Deserializable<decltype(obj.output_pointer)>::deserialize(deserializer);
    obj.num_limbs = serde::Deserializable<decltype(obj.num_limbs)>::deserialize(deserializer);
    obj.output_bits = serde::Deserializable<decltype(obj.output_bits)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BlockId& lhs, const BlockId& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BlockId::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BlockId>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BlockId BlockId::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BlockId>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BlockId>::serialize(const Acir::BlockId& obj, Serializer& serializer)
{
    serializer.increase_container_depth();
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
    serializer.decrease_container_depth();
}
 
template <>
template <typename Deserializer>
Acir::BlockId serde::Deserializable<Acir::BlockId>::deserialize(Deserializer& deserializer)
{
    deserializer.increase_container_depth();
    Acir::BlockId obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    deserializer.decrease_container_depth();
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BlockType& lhs, const BlockType& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BlockType::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BlockType>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BlockType BlockType::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BlockType>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BlockType>::serialize(const Acir::BlockType& obj, Serializer& serializer)
{
    serializer.increase_container_depth();
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
    serializer.decrease_container_depth();
}
 
template <>
template <typename Deserializer>
Acir::BlockType serde::Deserializable<Acir::BlockType>::deserialize(Deserializer& deserializer)
{
    deserializer.increase_container_depth();
    Acir::BlockType obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    deserializer.decrease_container_depth();
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BlockType::Memory& lhs, const BlockType::Memory& rhs)
{
    return true;
}
 
inline std::vector<uint8_t> BlockType::Memory::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BlockType::Memory>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BlockType::Memory BlockType::Memory::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BlockType::Memory>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BlockType::Memory>::serialize(const Acir::BlockType::Memory& obj, Serializer& serializer)
{}
 
template <>
template <typename Deserializer>
Acir::BlockType::Memory serde::Deserializable<Acir::BlockType::Memory>::deserialize(Deserializer& deserializer)
{
    Acir::BlockType::Memory obj;
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BlockType::CallData& lhs, const BlockType::CallData& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BlockType::CallData::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BlockType::CallData>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BlockType::CallData BlockType::CallData::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BlockType::CallData>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BlockType::CallData>::serialize(const Acir::BlockType::CallData& obj,
                                                               Serializer& serializer)
{
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BlockType::CallData serde::Deserializable<Acir::BlockType::CallData>::deserialize(Deserializer& deserializer)
{
    Acir::BlockType::CallData obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BlockType::ReturnData& lhs, const BlockType::ReturnData& rhs)
{
    return true;
}
 
inline std::vector<uint8_t> BlockType::ReturnData::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BlockType::ReturnData>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BlockType::ReturnData BlockType::ReturnData::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BlockType::ReturnData>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BlockType::ReturnData>::serialize(const Acir::BlockType::ReturnData& obj,
                                                                 Serializer& serializer)
{}
 
template <>
template <typename Deserializer>
Acir::BlockType::ReturnData serde::Deserializable<Acir::BlockType::ReturnData>::deserialize(Deserializer& deserializer)
{
    Acir::BlockType::ReturnData obj;
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BrilligBytecode& lhs, const BrilligBytecode& rhs)
{
    if (!(lhs.function_name == rhs.function_name)) {
        return false;
    }
    if (!(lhs.bytecode == rhs.bytecode)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BrilligBytecode::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BrilligBytecode>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BrilligBytecode BrilligBytecode::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BrilligBytecode>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BrilligBytecode>::serialize(const Acir::BrilligBytecode& obj, Serializer& serializer)
{
    serializer.increase_container_depth();
    serde::Serializable<decltype(obj.function_name)>::serialize(obj.function_name, serializer);
    serde::Serializable<decltype(obj.bytecode)>::serialize(obj.bytecode, serializer);
    serializer.decrease_container_depth();
}
 
template <>
template <typename Deserializer>
Acir::BrilligBytecode serde::Deserializable<Acir::BrilligBytecode>::deserialize(Deserializer& deserializer)
{
    deserializer.increase_container_depth();
    Acir::BrilligBytecode obj;
    obj.function_name = serde::Deserializable<decltype(obj.function_name)>::deserialize(deserializer);
    obj.bytecode = serde::Deserializable<decltype(obj.bytecode)>::deserialize(deserializer);
    deserializer.decrease_container_depth();
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BrilligInputs& lhs, const BrilligInputs& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BrilligInputs::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BrilligInputs>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BrilligInputs BrilligInputs::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BrilligInputs>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BrilligInputs>::serialize(const Acir::BrilligInputs& obj, Serializer& serializer)
{
    serializer.increase_container_depth();
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
    serializer.decrease_container_depth();
}
 
template <>
template <typename Deserializer>
Acir::BrilligInputs serde::Deserializable<Acir::BrilligInputs>::deserialize(Deserializer& deserializer)
{
    deserializer.increase_container_depth();
    Acir::BrilligInputs obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    deserializer.decrease_container_depth();
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BrilligInputs::Single& lhs, const BrilligInputs::Single& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BrilligInputs::Single::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BrilligInputs::Single>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BrilligInputs::Single BrilligInputs::Single::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BrilligInputs::Single>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BrilligInputs::Single>::serialize(const Acir::BrilligInputs::Single& obj,
                                                                 Serializer& serializer)
{
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BrilligInputs::Single serde::Deserializable<Acir::BrilligInputs::Single>::deserialize(Deserializer& deserializer)
{
    Acir::BrilligInputs::Single obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BrilligInputs::Array& lhs, const BrilligInputs::Array& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BrilligInputs::Array::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BrilligInputs::Array>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BrilligInputs::Array BrilligInputs::Array::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BrilligInputs::Array>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BrilligInputs::Array>::serialize(const Acir::BrilligInputs::Array& obj,
                                                                Serializer& serializer)
{
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BrilligInputs::Array serde::Deserializable<Acir::BrilligInputs::Array>::deserialize(Deserializer& deserializer)
{
    Acir::BrilligInputs::Array obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BrilligInputs::MemoryArray& lhs, const BrilligInputs::MemoryArray& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BrilligInputs::MemoryArray::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BrilligInputs::MemoryArray>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BrilligInputs::MemoryArray BrilligInputs::MemoryArray::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BrilligInputs::MemoryArray>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BrilligInputs::MemoryArray>::serialize(const Acir::BrilligInputs::MemoryArray& obj,
                                                                      Serializer& serializer)
{
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BrilligInputs::MemoryArray serde::Deserializable<Acir::BrilligInputs::MemoryArray>::deserialize(
    Deserializer& deserializer)
{
    Acir::BrilligInputs::MemoryArray obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BrilligOpcode& lhs, const BrilligOpcode& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BrilligOpcode::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BrilligOpcode>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BrilligOpcode BrilligOpcode::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BrilligOpcode>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BrilligOpcode>::serialize(const Acir::BrilligOpcode& obj, Serializer& serializer)
{
    serializer.increase_container_depth();
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
    serializer.decrease_container_depth();
}
 
template <>
template <typename Deserializer>
Acir::BrilligOpcode serde::Deserializable<Acir::BrilligOpcode>::deserialize(Deserializer& deserializer)
{
    deserializer.increase_container_depth();
    Acir::BrilligOpcode obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    deserializer.decrease_container_depth();
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BrilligOpcode::BinaryFieldOp& lhs, const BrilligOpcode::BinaryFieldOp& rhs)
{
    if (!(lhs.destination == rhs.destination)) {
        return false;
    }
    if (!(lhs.op == rhs.op)) {
        return false;
    }
    if (!(lhs.lhs == rhs.lhs)) {
        return false;
    }
    if (!(lhs.rhs == rhs.rhs)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BrilligOpcode::BinaryFieldOp::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BrilligOpcode::BinaryFieldOp>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BrilligOpcode::BinaryFieldOp BrilligOpcode::BinaryFieldOp::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BrilligOpcode::BinaryFieldOp>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BrilligOpcode::BinaryFieldOp>::serialize(const Acir::BrilligOpcode::BinaryFieldOp& obj,
                                                                        Serializer& serializer)
{
    serde::Serializable<decltype(obj.destination)>::serialize(obj.destination, serializer);
    serde::Serializable<decltype(obj.op)>::serialize(obj.op, serializer);
    serde::Serializable<decltype(obj.lhs)>::serialize(obj.lhs, serializer);
    serde::Serializable<decltype(obj.rhs)>::serialize(obj.rhs, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BrilligOpcode::BinaryFieldOp serde::Deserializable<Acir::BrilligOpcode::BinaryFieldOp>::deserialize(
    Deserializer& deserializer)
{
    Acir::BrilligOpcode::BinaryFieldOp obj;
    obj.destination = serde::Deserializable<decltype(obj.destination)>::deserialize(deserializer);
    obj.op = serde::Deserializable<decltype(obj.op)>::deserialize(deserializer);
    obj.lhs = serde::Deserializable<decltype(obj.lhs)>::deserialize(deserializer);
    obj.rhs = serde::Deserializable<decltype(obj.rhs)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BrilligOpcode::BinaryIntOp& lhs, const BrilligOpcode::BinaryIntOp& rhs)
{
    if (!(lhs.destination == rhs.destination)) {
        return false;
    }
    if (!(lhs.op == rhs.op)) {
        return false;
    }
    if (!(lhs.bit_size == rhs.bit_size)) {
        return false;
    }
    if (!(lhs.lhs == rhs.lhs)) {
        return false;
    }
    if (!(lhs.rhs == rhs.rhs)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BrilligOpcode::BinaryIntOp::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BrilligOpcode::BinaryIntOp>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BrilligOpcode::BinaryIntOp BrilligOpcode::BinaryIntOp::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BrilligOpcode::BinaryIntOp>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BrilligOpcode::BinaryIntOp>::serialize(const Acir::BrilligOpcode::BinaryIntOp& obj,
                                                                      Serializer& serializer)
{
    serde::Serializable<decltype(obj.destination)>::serialize(obj.destination, serializer);
    serde::Serializable<decltype(obj.op)>::serialize(obj.op, serializer);
    serde::Serializable<decltype(obj.bit_size)>::serialize(obj.bit_size, serializer);
    serde::Serializable<decltype(obj.lhs)>::serialize(obj.lhs, serializer);
    serde::Serializable<decltype(obj.rhs)>::serialize(obj.rhs, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BrilligOpcode::BinaryIntOp serde::Deserializable<Acir::BrilligOpcode::BinaryIntOp>::deserialize(
    Deserializer& deserializer)
{
    Acir::BrilligOpcode::BinaryIntOp obj;
    obj.destination = serde::Deserializable<decltype(obj.destination)>::deserialize(deserializer);
    obj.op = serde::Deserializable<decltype(obj.op)>::deserialize(deserializer);
    obj.bit_size = serde::Deserializable<decltype(obj.bit_size)>::deserialize(deserializer);
    obj.lhs = serde::Deserializable<decltype(obj.lhs)>::deserialize(deserializer);
    obj.rhs = serde::Deserializable<decltype(obj.rhs)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BrilligOpcode::Not& lhs, const BrilligOpcode::Not& rhs)
{
    if (!(lhs.destination == rhs.destination)) {
        return false;
    }
    if (!(lhs.source == rhs.source)) {
        return false;
    }
    if (!(lhs.bit_size == rhs.bit_size)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BrilligOpcode::Not::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BrilligOpcode::Not>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BrilligOpcode::Not BrilligOpcode::Not::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BrilligOpcode::Not>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BrilligOpcode::Not>::serialize(const Acir::BrilligOpcode::Not& obj,
                                                              Serializer& serializer)
{
    serde::Serializable<decltype(obj.destination)>::serialize(obj.destination, serializer);
    serde::Serializable<decltype(obj.source)>::serialize(obj.source, serializer);
    serde::Serializable<decltype(obj.bit_size)>::serialize(obj.bit_size, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BrilligOpcode::Not serde::Deserializable<Acir::BrilligOpcode::Not>::deserialize(Deserializer& deserializer)
{
    Acir::BrilligOpcode::Not obj;
    obj.destination = serde::Deserializable<decltype(obj.destination)>::deserialize(deserializer);
    obj.source = serde::Deserializable<decltype(obj.source)>::deserialize(deserializer);
    obj.bit_size = serde::Deserializable<decltype(obj.bit_size)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BrilligOpcode::Cast& lhs, const BrilligOpcode::Cast& rhs)
{
    if (!(lhs.destination == rhs.destination)) {
        return false;
    }
    if (!(lhs.source == rhs.source)) {
        return false;
    }
    if (!(lhs.bit_size == rhs.bit_size)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BrilligOpcode::Cast::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BrilligOpcode::Cast>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BrilligOpcode::Cast BrilligOpcode::Cast::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BrilligOpcode::Cast>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BrilligOpcode::Cast>::serialize(const Acir::BrilligOpcode::Cast& obj,
                                                               Serializer& serializer)
{
    serde::Serializable<decltype(obj.destination)>::serialize(obj.destination, serializer);
    serde::Serializable<decltype(obj.source)>::serialize(obj.source, serializer);
    serde::Serializable<decltype(obj.bit_size)>::serialize(obj.bit_size, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BrilligOpcode::Cast serde::Deserializable<Acir::BrilligOpcode::Cast>::deserialize(Deserializer& deserializer)
{
    Acir::BrilligOpcode::Cast obj;
    obj.destination = serde::Deserializable<decltype(obj.destination)>::deserialize(deserializer);
    obj.source = serde::Deserializable<decltype(obj.source)>::deserialize(deserializer);
    obj.bit_size = serde::Deserializable<decltype(obj.bit_size)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BrilligOpcode::JumpIf& lhs, const BrilligOpcode::JumpIf& rhs)
{
    if (!(lhs.condition == rhs.condition)) {
        return false;
    }
    if (!(lhs.location == rhs.location)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BrilligOpcode::JumpIf::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BrilligOpcode::JumpIf>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BrilligOpcode::JumpIf BrilligOpcode::JumpIf::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BrilligOpcode::JumpIf>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BrilligOpcode::JumpIf>::serialize(const Acir::BrilligOpcode::JumpIf& obj,
                                                                 Serializer& serializer)
{
    serde::Serializable<decltype(obj.condition)>::serialize(obj.condition, serializer);
    serde::Serializable<decltype(obj.location)>::serialize(obj.location, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BrilligOpcode::JumpIf serde::Deserializable<Acir::BrilligOpcode::JumpIf>::deserialize(Deserializer& deserializer)
{
    Acir::BrilligOpcode::JumpIf obj;
    obj.condition = serde::Deserializable<decltype(obj.condition)>::deserialize(deserializer);
    obj.location = serde::Deserializable<decltype(obj.location)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BrilligOpcode::Jump& lhs, const BrilligOpcode::Jump& rhs)
{
    if (!(lhs.location == rhs.location)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BrilligOpcode::Jump::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BrilligOpcode::Jump>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BrilligOpcode::Jump BrilligOpcode::Jump::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BrilligOpcode::Jump>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BrilligOpcode::Jump>::serialize(const Acir::BrilligOpcode::Jump& obj,
                                                               Serializer& serializer)
{
    serde::Serializable<decltype(obj.location)>::serialize(obj.location, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BrilligOpcode::Jump serde::Deserializable<Acir::BrilligOpcode::Jump>::deserialize(Deserializer& deserializer)
{
    Acir::BrilligOpcode::Jump obj;
    obj.location = serde::Deserializable<decltype(obj.location)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BrilligOpcode::CalldataCopy& lhs, const BrilligOpcode::CalldataCopy& rhs)
{
    if (!(lhs.destination_address == rhs.destination_address)) {
        return false;
    }
    if (!(lhs.size_address == rhs.size_address)) {
        return false;
    }
    if (!(lhs.offset_address == rhs.offset_address)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BrilligOpcode::CalldataCopy::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BrilligOpcode::CalldataCopy>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BrilligOpcode::CalldataCopy BrilligOpcode::CalldataCopy::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BrilligOpcode::CalldataCopy>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BrilligOpcode::CalldataCopy>::serialize(const Acir::BrilligOpcode::CalldataCopy& obj,
                                                                       Serializer& serializer)
{
    serde::Serializable<decltype(obj.destination_address)>::serialize(obj.destination_address, serializer);
    serde::Serializable<decltype(obj.size_address)>::serialize(obj.size_address, serializer);
    serde::Serializable<decltype(obj.offset_address)>::serialize(obj.offset_address, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BrilligOpcode::CalldataCopy serde::Deserializable<Acir::BrilligOpcode::CalldataCopy>::deserialize(
    Deserializer& deserializer)
{
    Acir::BrilligOpcode::CalldataCopy obj;
    obj.destination_address = serde::Deserializable<decltype(obj.destination_address)>::deserialize(deserializer);
    obj.size_address = serde::Deserializable<decltype(obj.size_address)>::deserialize(deserializer);
    obj.offset_address = serde::Deserializable<decltype(obj.offset_address)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BrilligOpcode::Call& lhs, const BrilligOpcode::Call& rhs)
{
    if (!(lhs.location == rhs.location)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BrilligOpcode::Call::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BrilligOpcode::Call>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BrilligOpcode::Call BrilligOpcode::Call::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BrilligOpcode::Call>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BrilligOpcode::Call>::serialize(const Acir::BrilligOpcode::Call& obj,
                                                               Serializer& serializer)
{
    serde::Serializable<decltype(obj.location)>::serialize(obj.location, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BrilligOpcode::Call serde::Deserializable<Acir::BrilligOpcode::Call>::deserialize(Deserializer& deserializer)
{
    Acir::BrilligOpcode::Call obj;
    obj.location = serde::Deserializable<decltype(obj.location)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BrilligOpcode::Const& lhs, const BrilligOpcode::Const& rhs)
{
    if (!(lhs.destination == rhs.destination)) {
        return false;
    }
    if (!(lhs.bit_size == rhs.bit_size)) {
        return false;
    }
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BrilligOpcode::Const::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BrilligOpcode::Const>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BrilligOpcode::Const BrilligOpcode::Const::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BrilligOpcode::Const>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BrilligOpcode::Const>::serialize(const Acir::BrilligOpcode::Const& obj,
                                                                Serializer& serializer)
{
    serde::Serializable<decltype(obj.destination)>::serialize(obj.destination, serializer);
    serde::Serializable<decltype(obj.bit_size)>::serialize(obj.bit_size, serializer);
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BrilligOpcode::Const serde::Deserializable<Acir::BrilligOpcode::Const>::deserialize(Deserializer& deserializer)
{
    Acir::BrilligOpcode::Const obj;
    obj.destination = serde::Deserializable<decltype(obj.destination)>::deserialize(deserializer);
    obj.bit_size = serde::Deserializable<decltype(obj.bit_size)>::deserialize(deserializer);
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BrilligOpcode::IndirectConst& lhs, const BrilligOpcode::IndirectConst& rhs)
{
    if (!(lhs.destination_pointer == rhs.destination_pointer)) {
        return false;
    }
    if (!(lhs.bit_size == rhs.bit_size)) {
        return false;
    }
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BrilligOpcode::IndirectConst::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BrilligOpcode::IndirectConst>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BrilligOpcode::IndirectConst BrilligOpcode::IndirectConst::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BrilligOpcode::IndirectConst>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BrilligOpcode::IndirectConst>::serialize(const Acir::BrilligOpcode::IndirectConst& obj,
                                                                        Serializer& serializer)
{
    serde::Serializable<decltype(obj.destination_pointer)>::serialize(obj.destination_pointer, serializer);
    serde::Serializable<decltype(obj.bit_size)>::serialize(obj.bit_size, serializer);
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BrilligOpcode::IndirectConst serde::Deserializable<Acir::BrilligOpcode::IndirectConst>::deserialize(
    Deserializer& deserializer)
{
    Acir::BrilligOpcode::IndirectConst obj;
    obj.destination_pointer = serde::Deserializable<decltype(obj.destination_pointer)>::deserialize(deserializer);
    obj.bit_size = serde::Deserializable<decltype(obj.bit_size)>::deserialize(deserializer);
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BrilligOpcode::Return& lhs, const BrilligOpcode::Return& rhs)
{
    return true;
}
 
inline std::vector<uint8_t> BrilligOpcode::Return::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BrilligOpcode::Return>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BrilligOpcode::Return BrilligOpcode::Return::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BrilligOpcode::Return>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BrilligOpcode::Return>::serialize(const Acir::BrilligOpcode::Return& obj,
                                                                 Serializer& serializer)
{}
 
template <>
template <typename Deserializer>
Acir::BrilligOpcode::Return serde::Deserializable<Acir::BrilligOpcode::Return>::deserialize(Deserializer& deserializer)
{
    Acir::BrilligOpcode::Return obj;
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BrilligOpcode::ForeignCall& lhs, const BrilligOpcode::ForeignCall& rhs)
{
    if (!(lhs.function == rhs.function)) {
        return false;
    }
    if (!(lhs.destinations == rhs.destinations)) {
        return false;
    }
    if (!(lhs.destination_value_types == rhs.destination_value_types)) {
        return false;
    }
    if (!(lhs.inputs == rhs.inputs)) {
        return false;
    }
    if (!(lhs.input_value_types == rhs.input_value_types)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BrilligOpcode::ForeignCall::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BrilligOpcode::ForeignCall>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BrilligOpcode::ForeignCall BrilligOpcode::ForeignCall::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BrilligOpcode::ForeignCall>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BrilligOpcode::ForeignCall>::serialize(const Acir::BrilligOpcode::ForeignCall& obj,
                                                                      Serializer& serializer)
{
    serde::Serializable<decltype(obj.function)>::serialize(obj.function, serializer);
    serde::Serializable<decltype(obj.destinations)>::serialize(obj.destinations, serializer);
    serde::Serializable<decltype(obj.destination_value_types)>::serialize(obj.destination_value_types, serializer);
    serde::Serializable<decltype(obj.inputs)>::serialize(obj.inputs, serializer);
    serde::Serializable<decltype(obj.input_value_types)>::serialize(obj.input_value_types, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BrilligOpcode::ForeignCall serde::Deserializable<Acir::BrilligOpcode::ForeignCall>::deserialize(
    Deserializer& deserializer)
{
    Acir::BrilligOpcode::ForeignCall obj;
    obj.function = serde::Deserializable<decltype(obj.function)>::deserialize(deserializer);
    obj.destinations = serde::Deserializable<decltype(obj.destinations)>::deserialize(deserializer);
    obj.destination_value_types =
        serde::Deserializable<decltype(obj.destination_value_types)>::deserialize(deserializer);
    obj.inputs = serde::Deserializable<decltype(obj.inputs)>::deserialize(deserializer);
    obj.input_value_types = serde::Deserializable<decltype(obj.input_value_types)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BrilligOpcode::Mov& lhs, const BrilligOpcode::Mov& rhs)
{
    if (!(lhs.destination == rhs.destination)) {
        return false;
    }
    if (!(lhs.source == rhs.source)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BrilligOpcode::Mov::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BrilligOpcode::Mov>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BrilligOpcode::Mov BrilligOpcode::Mov::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BrilligOpcode::Mov>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BrilligOpcode::Mov>::serialize(const Acir::BrilligOpcode::Mov& obj,
                                                              Serializer& serializer)
{
    serde::Serializable<decltype(obj.destination)>::serialize(obj.destination, serializer);
    serde::Serializable<decltype(obj.source)>::serialize(obj.source, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BrilligOpcode::Mov serde::Deserializable<Acir::BrilligOpcode::Mov>::deserialize(Deserializer& deserializer)
{
    Acir::BrilligOpcode::Mov obj;
    obj.destination = serde::Deserializable<decltype(obj.destination)>::deserialize(deserializer);
    obj.source = serde::Deserializable<decltype(obj.source)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BrilligOpcode::ConditionalMov& lhs, const BrilligOpcode::ConditionalMov& rhs)
{
    if (!(lhs.destination == rhs.destination)) {
        return false;
    }
    if (!(lhs.source_a == rhs.source_a)) {
        return false;
    }
    if (!(lhs.source_b == rhs.source_b)) {
        return false;
    }
    if (!(lhs.condition == rhs.condition)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BrilligOpcode::ConditionalMov::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BrilligOpcode::ConditionalMov>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BrilligOpcode::ConditionalMov BrilligOpcode::ConditionalMov::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BrilligOpcode::ConditionalMov>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BrilligOpcode::ConditionalMov>::serialize(const Acir::BrilligOpcode::ConditionalMov& obj,
                                                                         Serializer& serializer)
{
    serde::Serializable<decltype(obj.destination)>::serialize(obj.destination, serializer);
    serde::Serializable<decltype(obj.source_a)>::serialize(obj.source_a, serializer);
    serde::Serializable<decltype(obj.source_b)>::serialize(obj.source_b, serializer);
    serde::Serializable<decltype(obj.condition)>::serialize(obj.condition, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BrilligOpcode::ConditionalMov serde::Deserializable<Acir::BrilligOpcode::ConditionalMov>::deserialize(
    Deserializer& deserializer)
{
    Acir::BrilligOpcode::ConditionalMov obj;
    obj.destination = serde::Deserializable<decltype(obj.destination)>::deserialize(deserializer);
    obj.source_a = serde::Deserializable<decltype(obj.source_a)>::deserialize(deserializer);
    obj.source_b = serde::Deserializable<decltype(obj.source_b)>::deserialize(deserializer);
    obj.condition = serde::Deserializable<decltype(obj.condition)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BrilligOpcode::Load& lhs, const BrilligOpcode::Load& rhs)
{
    if (!(lhs.destination == rhs.destination)) {
        return false;
    }
    if (!(lhs.source_pointer == rhs.source_pointer)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BrilligOpcode::Load::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BrilligOpcode::Load>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BrilligOpcode::Load BrilligOpcode::Load::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BrilligOpcode::Load>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BrilligOpcode::Load>::serialize(const Acir::BrilligOpcode::Load& obj,
                                                               Serializer& serializer)
{
    serde::Serializable<decltype(obj.destination)>::serialize(obj.destination, serializer);
    serde::Serializable<decltype(obj.source_pointer)>::serialize(obj.source_pointer, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BrilligOpcode::Load serde::Deserializable<Acir::BrilligOpcode::Load>::deserialize(Deserializer& deserializer)
{
    Acir::BrilligOpcode::Load obj;
    obj.destination = serde::Deserializable<decltype(obj.destination)>::deserialize(deserializer);
    obj.source_pointer = serde::Deserializable<decltype(obj.source_pointer)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BrilligOpcode::Store& lhs, const BrilligOpcode::Store& rhs)
{
    if (!(lhs.destination_pointer == rhs.destination_pointer)) {
        return false;
    }
    if (!(lhs.source == rhs.source)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BrilligOpcode::Store::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BrilligOpcode::Store>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BrilligOpcode::Store BrilligOpcode::Store::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BrilligOpcode::Store>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BrilligOpcode::Store>::serialize(const Acir::BrilligOpcode::Store& obj,
                                                                Serializer& serializer)
{
    serde::Serializable<decltype(obj.destination_pointer)>::serialize(obj.destination_pointer, serializer);
    serde::Serializable<decltype(obj.source)>::serialize(obj.source, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BrilligOpcode::Store serde::Deserializable<Acir::BrilligOpcode::Store>::deserialize(Deserializer& deserializer)
{
    Acir::BrilligOpcode::Store obj;
    obj.destination_pointer = serde::Deserializable<decltype(obj.destination_pointer)>::deserialize(deserializer);
    obj.source = serde::Deserializable<decltype(obj.source)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BrilligOpcode::BlackBox& lhs, const BrilligOpcode::BlackBox& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BrilligOpcode::BlackBox::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BrilligOpcode::BlackBox>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BrilligOpcode::BlackBox BrilligOpcode::BlackBox::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BrilligOpcode::BlackBox>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BrilligOpcode::BlackBox>::serialize(const Acir::BrilligOpcode::BlackBox& obj,
                                                                   Serializer& serializer)
{
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BrilligOpcode::BlackBox serde::Deserializable<Acir::BrilligOpcode::BlackBox>::deserialize(
    Deserializer& deserializer)
{
    Acir::BrilligOpcode::BlackBox obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BrilligOpcode::Trap& lhs, const BrilligOpcode::Trap& rhs)
{
    if (!(lhs.revert_data == rhs.revert_data)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BrilligOpcode::Trap::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BrilligOpcode::Trap>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BrilligOpcode::Trap BrilligOpcode::Trap::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BrilligOpcode::Trap>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BrilligOpcode::Trap>::serialize(const Acir::BrilligOpcode::Trap& obj,
                                                               Serializer& serializer)
{
    serde::Serializable<decltype(obj.revert_data)>::serialize(obj.revert_data, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BrilligOpcode::Trap serde::Deserializable<Acir::BrilligOpcode::Trap>::deserialize(Deserializer& deserializer)
{
    Acir::BrilligOpcode::Trap obj;
    obj.revert_data = serde::Deserializable<decltype(obj.revert_data)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BrilligOpcode::Stop& lhs, const BrilligOpcode::Stop& rhs)
{
    if (!(lhs.return_data == rhs.return_data)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BrilligOpcode::Stop::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BrilligOpcode::Stop>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BrilligOpcode::Stop BrilligOpcode::Stop::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BrilligOpcode::Stop>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BrilligOpcode::Stop>::serialize(const Acir::BrilligOpcode::Stop& obj,
                                                               Serializer& serializer)
{
    serde::Serializable<decltype(obj.return_data)>::serialize(obj.return_data, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BrilligOpcode::Stop serde::Deserializable<Acir::BrilligOpcode::Stop>::deserialize(Deserializer& deserializer)
{
    Acir::BrilligOpcode::Stop obj;
    obj.return_data = serde::Deserializable<decltype(obj.return_data)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BrilligOutputs& lhs, const BrilligOutputs& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BrilligOutputs::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BrilligOutputs>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BrilligOutputs BrilligOutputs::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BrilligOutputs>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BrilligOutputs>::serialize(const Acir::BrilligOutputs& obj, Serializer& serializer)
{
    serializer.increase_container_depth();
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
    serializer.decrease_container_depth();
}
 
template <>
template <typename Deserializer>
Acir::BrilligOutputs serde::Deserializable<Acir::BrilligOutputs>::deserialize(Deserializer& deserializer)
{
    deserializer.increase_container_depth();
    Acir::BrilligOutputs obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    deserializer.decrease_container_depth();
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BrilligOutputs::Simple& lhs, const BrilligOutputs::Simple& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BrilligOutputs::Simple::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BrilligOutputs::Simple>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BrilligOutputs::Simple BrilligOutputs::Simple::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BrilligOutputs::Simple>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BrilligOutputs::Simple>::serialize(const Acir::BrilligOutputs::Simple& obj,
                                                                  Serializer& serializer)
{
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BrilligOutputs::Simple serde::Deserializable<Acir::BrilligOutputs::Simple>::deserialize(
    Deserializer& deserializer)
{
    Acir::BrilligOutputs::Simple obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const BrilligOutputs::Array& lhs, const BrilligOutputs::Array& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> BrilligOutputs::Array::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<BrilligOutputs::Array>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline BrilligOutputs::Array BrilligOutputs::Array::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<BrilligOutputs::Array>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::BrilligOutputs::Array>::serialize(const Acir::BrilligOutputs::Array& obj,
                                                                 Serializer& serializer)
{
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
}
 
template <>
template <typename Deserializer>
Acir::BrilligOutputs::Array serde::Deserializable<Acir::BrilligOutputs::Array>::deserialize(Deserializer& deserializer)
{
    Acir::BrilligOutputs::Array obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const Circuit& lhs, const Circuit& rhs)
{
    if (!(lhs.function_name == rhs.function_name)) {
        return false;
    }
    if (!(lhs.current_witness_index == rhs.current_witness_index)) {
        return false;
    }
    if (!(lhs.opcodes == rhs.opcodes)) {
        return false;
    }
    if (!(lhs.private_parameters == rhs.private_parameters)) {
        return false;
    }
    if (!(lhs.public_parameters == rhs.public_parameters)) {
        return false;
    }
    if (!(lhs.return_values == rhs.return_values)) {
        return false;
    }
    if (!(lhs.assert_messages == rhs.assert_messages)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> Circuit::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<Circuit>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline Circuit Circuit::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<Circuit>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::Circuit>::serialize(const Acir::Circuit& obj, Serializer& serializer)
{
    serializer.increase_container_depth();
    serde::Serializable<decltype(obj.function_name)>::serialize(obj.function_name, serializer);
    serde::Serializable<decltype(obj.current_witness_index)>::serialize(obj.current_witness_index, serializer);
    serde::Serializable<decltype(obj.opcodes)>::serialize(obj.opcodes, serializer);
    serde::Serializable<decltype(obj.private_parameters)>::serialize(obj.private_parameters, serializer);
    serde::Serializable<decltype(obj.public_parameters)>::serialize(obj.public_parameters, serializer);
    serde::Serializable<decltype(obj.return_values)>::serialize(obj.return_values, serializer);
    serde::Serializable<decltype(obj.assert_messages)>::serialize(obj.assert_messages, serializer);
    serializer.decrease_container_depth();
}
 
template <>
template <typename Deserializer>
Acir::Circuit serde::Deserializable<Acir::Circuit>::deserialize(Deserializer& deserializer)
{
    deserializer.increase_container_depth();
    Acir::Circuit obj;
    obj.function_name = serde::Deserializable<decltype(obj.function_name)>::deserialize(deserializer);
    obj.current_witness_index = serde::Deserializable<decltype(obj.current_witness_index)>::deserialize(deserializer);
    obj.opcodes = serde::Deserializable<decltype(obj.opcodes)>::deserialize(deserializer);
    obj.private_parameters = serde::Deserializable<decltype(obj.private_parameters)>::deserialize(deserializer);
    obj.public_parameters = serde::Deserializable<decltype(obj.public_parameters)>::deserialize(deserializer);
    obj.return_values = serde::Deserializable<decltype(obj.return_values)>::deserialize(deserializer);
    obj.assert_messages = serde::Deserializable<decltype(obj.assert_messages)>::deserialize(deserializer);
    deserializer.decrease_container_depth();
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const Expression& lhs, const Expression& rhs)
{
    if (!(lhs.mul_terms == rhs.mul_terms)) {
        return false;
    }
    if (!(lhs.linear_combinations == rhs.linear_combinations)) {
        return false;
    }
    if (!(lhs.q_c == rhs.q_c)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> Expression::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<Expression>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline Expression Expression::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<Expression>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::Expression>::serialize(const Acir::Expression& obj, Serializer& serializer)
{
    serializer.increase_container_depth();
    serde::Serializable<decltype(obj.mul_terms)>::serialize(obj.mul_terms, serializer);
    serde::Serializable<decltype(obj.linear_combinations)>::serialize(obj.linear_combinations, serializer);
    serde::Serializable<decltype(obj.q_c)>::serialize(obj.q_c, serializer);
    serializer.decrease_container_depth();
}
 
template <>
template <typename Deserializer>
Acir::Expression serde::Deserializable<Acir::Expression>::deserialize(Deserializer& deserializer)
{
    deserializer.increase_container_depth();
    Acir::Expression obj;
    obj.mul_terms = serde::Deserializable<decltype(obj.mul_terms)>::deserialize(deserializer);
    obj.linear_combinations = serde::Deserializable<decltype(obj.linear_combinations)>::deserialize(deserializer);
    obj.q_c = serde::Deserializable<decltype(obj.q_c)>::deserialize(deserializer);
    deserializer.decrease_container_depth();
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const ExpressionOrMemory& lhs, const ExpressionOrMemory& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> ExpressionOrMemory::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<ExpressionOrMemory>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline ExpressionOrMemory ExpressionOrMemory::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<ExpressionOrMemory>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::ExpressionOrMemory>::serialize(const Acir::ExpressionOrMemory& obj,
                                                              Serializer& serializer)
{
    serializer.increase_container_depth();
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
    serializer.decrease_container_depth();
}
 
template <>
template <typename Deserializer>
Acir::ExpressionOrMemory serde::Deserializable<Acir::ExpressionOrMemory>::deserialize(Deserializer& deserializer)
{
    deserializer.increase_container_depth();
    Acir::ExpressionOrMemory obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    deserializer.decrease_container_depth();
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const ExpressionOrMemory::Expression& lhs, const ExpressionOrMemory::Expression& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> ExpressionOrMemory::Expression::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<ExpressionOrMemory::Expression>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline ExpressionOrMemory::Expression ExpressionOrMemory::Expression::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<ExpressionOrMemory::Expression>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::ExpressionOrMemory::Expression>::serialize(
    const Acir::ExpressionOrMemory::Expression& obj, Serializer& serializer)
{
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
}
 
template <>
template <typename Deserializer>
Acir::ExpressionOrMemory::Expression serde::Deserializable<Acir::ExpressionOrMemory::Expression>::deserialize(
    Deserializer& deserializer)
{
    Acir::ExpressionOrMemory::Expression obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const ExpressionOrMemory::Memory& lhs, const ExpressionOrMemory::Memory& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> ExpressionOrMemory::Memory::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<ExpressionOrMemory::Memory>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline ExpressionOrMemory::Memory ExpressionOrMemory::Memory::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<ExpressionOrMemory::Memory>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::ExpressionOrMemory::Memory>::serialize(const Acir::ExpressionOrMemory::Memory& obj,
                                                                      Serializer& serializer)
{
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
}
 
template <>
template <typename Deserializer>
Acir::ExpressionOrMemory::Memory serde::Deserializable<Acir::ExpressionOrMemory::Memory>::deserialize(
    Deserializer& deserializer)
{
    Acir::ExpressionOrMemory::Memory obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const ExpressionWidth& lhs, const ExpressionWidth& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> ExpressionWidth::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<ExpressionWidth>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline ExpressionWidth ExpressionWidth::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<ExpressionWidth>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::ExpressionWidth>::serialize(const Acir::ExpressionWidth& obj, Serializer& serializer)
{
    serializer.increase_container_depth();
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
    serializer.decrease_container_depth();
}
 
template <>
template <typename Deserializer>
Acir::ExpressionWidth serde::Deserializable<Acir::ExpressionWidth>::deserialize(Deserializer& deserializer)
{
    deserializer.increase_container_depth();
    Acir::ExpressionWidth obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    deserializer.decrease_container_depth();
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const ExpressionWidth::Unbounded& lhs, const ExpressionWidth::Unbounded& rhs)
{
    return true;
}
 
inline std::vector<uint8_t> ExpressionWidth::Unbounded::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<ExpressionWidth::Unbounded>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline ExpressionWidth::Unbounded ExpressionWidth::Unbounded::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<ExpressionWidth::Unbounded>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::ExpressionWidth::Unbounded>::serialize(const Acir::ExpressionWidth::Unbounded& obj,
                                                                      Serializer& serializer)
{}
 
template <>
template <typename Deserializer>
Acir::ExpressionWidth::Unbounded serde::Deserializable<Acir::ExpressionWidth::Unbounded>::deserialize(
    Deserializer& deserializer)
{
    Acir::ExpressionWidth::Unbounded obj;
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const ExpressionWidth::Bounded& lhs, const ExpressionWidth::Bounded& rhs)
{
    if (!(lhs.width == rhs.width)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> ExpressionWidth::Bounded::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<ExpressionWidth::Bounded>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline ExpressionWidth::Bounded ExpressionWidth::Bounded::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<ExpressionWidth::Bounded>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::ExpressionWidth::Bounded>::serialize(const Acir::ExpressionWidth::Bounded& obj,
                                                                    Serializer& serializer)
{
    serde::Serializable<decltype(obj.width)>::serialize(obj.width, serializer);
}
 
template <>
template <typename Deserializer>
Acir::ExpressionWidth::Bounded serde::Deserializable<Acir::ExpressionWidth::Bounded>::deserialize(
    Deserializer& deserializer)
{
    Acir::ExpressionWidth::Bounded obj;
    obj.width = serde::Deserializable<decltype(obj.width)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const FunctionInput& lhs, const FunctionInput& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> FunctionInput::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<FunctionInput>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline FunctionInput FunctionInput::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<FunctionInput>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::FunctionInput>::serialize(const Acir::FunctionInput& obj, Serializer& serializer)
{
    serializer.increase_container_depth();
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
    serializer.decrease_container_depth();
}
 
template <>
template <typename Deserializer>
Acir::FunctionInput serde::Deserializable<Acir::FunctionInput>::deserialize(Deserializer& deserializer)
{
    deserializer.increase_container_depth();
    Acir::FunctionInput obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    deserializer.decrease_container_depth();
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const FunctionInput::Constant& lhs, const FunctionInput::Constant& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> FunctionInput::Constant::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<FunctionInput::Constant>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline FunctionInput::Constant FunctionInput::Constant::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<FunctionInput::Constant>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::FunctionInput::Constant>::serialize(const Acir::FunctionInput::Constant& obj,
                                                                   Serializer& serializer)
{
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
}
 
template <>
template <typename Deserializer>
Acir::FunctionInput::Constant serde::Deserializable<Acir::FunctionInput::Constant>::deserialize(
    Deserializer& deserializer)
{
    Acir::FunctionInput::Constant obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const FunctionInput::Witness& lhs, const FunctionInput::Witness& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> FunctionInput::Witness::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<FunctionInput::Witness>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline FunctionInput::Witness FunctionInput::Witness::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<FunctionInput::Witness>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::FunctionInput::Witness>::serialize(const Acir::FunctionInput::Witness& obj,
                                                                  Serializer& serializer)
{
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
}
 
template <>
template <typename Deserializer>
Acir::FunctionInput::Witness serde::Deserializable<Acir::FunctionInput::Witness>::deserialize(
    Deserializer& deserializer)
{
    Acir::FunctionInput::Witness obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const HeapArray& lhs, const HeapArray& rhs)
{
    if (!(lhs.pointer == rhs.pointer)) {
        return false;
    }
    if (!(lhs.size == rhs.size)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> HeapArray::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<HeapArray>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline HeapArray HeapArray::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<HeapArray>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::HeapArray>::serialize(const Acir::HeapArray& obj, Serializer& serializer)
{
    serializer.increase_container_depth();
    serde::Serializable<decltype(obj.pointer)>::serialize(obj.pointer, serializer);
    serde::Serializable<decltype(obj.size)>::serialize(obj.size, serializer);
    serializer.decrease_container_depth();
}
 
template <>
template <typename Deserializer>
Acir::HeapArray serde::Deserializable<Acir::HeapArray>::deserialize(Deserializer& deserializer)
{
    deserializer.increase_container_depth();
    Acir::HeapArray obj;
    obj.pointer = serde::Deserializable<decltype(obj.pointer)>::deserialize(deserializer);
    obj.size = serde::Deserializable<decltype(obj.size)>::deserialize(deserializer);
    deserializer.decrease_container_depth();
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const HeapValueType& lhs, const HeapValueType& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> HeapValueType::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<HeapValueType>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline HeapValueType HeapValueType::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<HeapValueType>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::HeapValueType>::serialize(const Acir::HeapValueType& obj, Serializer& serializer)
{
    serializer.increase_container_depth();
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
    serializer.decrease_container_depth();
}
 
template <>
template <typename Deserializer>
Acir::HeapValueType serde::Deserializable<Acir::HeapValueType>::deserialize(Deserializer& deserializer)
{
    deserializer.increase_container_depth();
    Acir::HeapValueType obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    deserializer.decrease_container_depth();
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const HeapValueType::Simple& lhs, const HeapValueType::Simple& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> HeapValueType::Simple::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<HeapValueType::Simple>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline HeapValueType::Simple HeapValueType::Simple::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<HeapValueType::Simple>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::HeapValueType::Simple>::serialize(const Acir::HeapValueType::Simple& obj,
                                                                 Serializer& serializer)
{
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
}
 
template <>
template <typename Deserializer>
Acir::HeapValueType::Simple serde::Deserializable<Acir::HeapValueType::Simple>::deserialize(Deserializer& deserializer)
{
    Acir::HeapValueType::Simple obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const HeapValueType::Array& lhs, const HeapValueType::Array& rhs)
{
    if (!(lhs.value_types == rhs.value_types)) {
        return false;
    }
    if (!(lhs.size == rhs.size)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> HeapValueType::Array::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<HeapValueType::Array>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline HeapValueType::Array HeapValueType::Array::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<HeapValueType::Array>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::HeapValueType::Array>::serialize(const Acir::HeapValueType::Array& obj,
                                                                Serializer& serializer)
{
    serde::Serializable<decltype(obj.value_types)>::serialize(obj.value_types, serializer);
    serde::Serializable<decltype(obj.size)>::serialize(obj.size, serializer);
}
 
template <>
template <typename Deserializer>
Acir::HeapValueType::Array serde::Deserializable<Acir::HeapValueType::Array>::deserialize(Deserializer& deserializer)
{
    Acir::HeapValueType::Array obj;
    obj.value_types = serde::Deserializable<decltype(obj.value_types)>::deserialize(deserializer);
    obj.size = serde::Deserializable<decltype(obj.size)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const HeapValueType::Vector& lhs, const HeapValueType::Vector& rhs)
{
    if (!(lhs.value_types == rhs.value_types)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> HeapValueType::Vector::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<HeapValueType::Vector>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline HeapValueType::Vector HeapValueType::Vector::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<HeapValueType::Vector>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::HeapValueType::Vector>::serialize(const Acir::HeapValueType::Vector& obj,
                                                                 Serializer& serializer)
{
    serde::Serializable<decltype(obj.value_types)>::serialize(obj.value_types, serializer);
}
 
template <>
template <typename Deserializer>
Acir::HeapValueType::Vector serde::Deserializable<Acir::HeapValueType::Vector>::deserialize(Deserializer& deserializer)
{
    Acir::HeapValueType::Vector obj;
    obj.value_types = serde::Deserializable<decltype(obj.value_types)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const HeapVector& lhs, const HeapVector& rhs)
{
    if (!(lhs.pointer == rhs.pointer)) {
        return false;
    }
    if (!(lhs.size == rhs.size)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> HeapVector::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<HeapVector>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline HeapVector HeapVector::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<HeapVector>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::HeapVector>::serialize(const Acir::HeapVector& obj, Serializer& serializer)
{
    serializer.increase_container_depth();
    serde::Serializable<decltype(obj.pointer)>::serialize(obj.pointer, serializer);
    serde::Serializable<decltype(obj.size)>::serialize(obj.size, serializer);
    serializer.decrease_container_depth();
}
 
template <>
template <typename Deserializer>
Acir::HeapVector serde::Deserializable<Acir::HeapVector>::deserialize(Deserializer& deserializer)
{
    deserializer.increase_container_depth();
    Acir::HeapVector obj;
    obj.pointer = serde::Deserializable<decltype(obj.pointer)>::deserialize(deserializer);
    obj.size = serde::Deserializable<decltype(obj.size)>::deserialize(deserializer);
    deserializer.decrease_container_depth();
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const IntegerBitSize& lhs, const IntegerBitSize& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> IntegerBitSize::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<IntegerBitSize>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline IntegerBitSize IntegerBitSize::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<IntegerBitSize>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::IntegerBitSize>::serialize(const Acir::IntegerBitSize& obj, Serializer& serializer)
{
    serializer.increase_container_depth();
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
    serializer.decrease_container_depth();
}
 
template <>
template <typename Deserializer>
Acir::IntegerBitSize serde::Deserializable<Acir::IntegerBitSize>::deserialize(Deserializer& deserializer)
{
    deserializer.increase_container_depth();
    Acir::IntegerBitSize obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    deserializer.decrease_container_depth();
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const IntegerBitSize::U1& lhs, const IntegerBitSize::U1& rhs)
{
    return true;
}
 
inline std::vector<uint8_t> IntegerBitSize::U1::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<IntegerBitSize::U1>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline IntegerBitSize::U1 IntegerBitSize::U1::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<IntegerBitSize::U1>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::IntegerBitSize::U1>::serialize(const Acir::IntegerBitSize::U1& obj,
                                                              Serializer& serializer)
{}
 
template <>
template <typename Deserializer>
Acir::IntegerBitSize::U1 serde::Deserializable<Acir::IntegerBitSize::U1>::deserialize(Deserializer& deserializer)
{
    Acir::IntegerBitSize::U1 obj;
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const IntegerBitSize::U8& lhs, const IntegerBitSize::U8& rhs)
{
    return true;
}
 
inline std::vector<uint8_t> IntegerBitSize::U8::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<IntegerBitSize::U8>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline IntegerBitSize::U8 IntegerBitSize::U8::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<IntegerBitSize::U8>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::IntegerBitSize::U8>::serialize(const Acir::IntegerBitSize::U8& obj,
                                                              Serializer& serializer)
{}
 
template <>
template <typename Deserializer>
Acir::IntegerBitSize::U8 serde::Deserializable<Acir::IntegerBitSize::U8>::deserialize(Deserializer& deserializer)
{
    Acir::IntegerBitSize::U8 obj;
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const IntegerBitSize::U16& lhs, const IntegerBitSize::U16& rhs)
{
    return true;
}
 
inline std::vector<uint8_t> IntegerBitSize::U16::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<IntegerBitSize::U16>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline IntegerBitSize::U16 IntegerBitSize::U16::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<IntegerBitSize::U16>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::IntegerBitSize::U16>::serialize(const Acir::IntegerBitSize::U16& obj,
                                                               Serializer& serializer)
{}
 
template <>
template <typename Deserializer>
Acir::IntegerBitSize::U16 serde::Deserializable<Acir::IntegerBitSize::U16>::deserialize(Deserializer& deserializer)
{
    Acir::IntegerBitSize::U16 obj;
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const IntegerBitSize::U32& lhs, const IntegerBitSize::U32& rhs)
{
    return true;
}
 
inline std::vector<uint8_t> IntegerBitSize::U32::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<IntegerBitSize::U32>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline IntegerBitSize::U32 IntegerBitSize::U32::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<IntegerBitSize::U32>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::IntegerBitSize::U32>::serialize(const Acir::IntegerBitSize::U32& obj,
                                                               Serializer& serializer)
{}
 
template <>
template <typename Deserializer>
Acir::IntegerBitSize::U32 serde::Deserializable<Acir::IntegerBitSize::U32>::deserialize(Deserializer& deserializer)
{
    Acir::IntegerBitSize::U32 obj;
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const IntegerBitSize::U64& lhs, const IntegerBitSize::U64& rhs)
{
    return true;
}
 
inline std::vector<uint8_t> IntegerBitSize::U64::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<IntegerBitSize::U64>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline IntegerBitSize::U64 IntegerBitSize::U64::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<IntegerBitSize::U64>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::IntegerBitSize::U64>::serialize(const Acir::IntegerBitSize::U64& obj,
                                                               Serializer& serializer)
{}
 
template <>
template <typename Deserializer>
Acir::IntegerBitSize::U64 serde::Deserializable<Acir::IntegerBitSize::U64>::deserialize(Deserializer& deserializer)
{
    Acir::IntegerBitSize::U64 obj;
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const IntegerBitSize::U128& lhs, const IntegerBitSize::U128& rhs)
{
    return true;
}
 
inline std::vector<uint8_t> IntegerBitSize::U128::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<IntegerBitSize::U128>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline IntegerBitSize::U128 IntegerBitSize::U128::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<IntegerBitSize::U128>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::IntegerBitSize::U128>::serialize(const Acir::IntegerBitSize::U128& obj,
                                                                Serializer& serializer)
{}
 
template <>
template <typename Deserializer>
Acir::IntegerBitSize::U128 serde::Deserializable<Acir::IntegerBitSize::U128>::deserialize(Deserializer& deserializer)
{
    Acir::IntegerBitSize::U128 obj;
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const MemOp& lhs, const MemOp& rhs)
{
    if (!(lhs.operation == rhs.operation)) {
        return false;
    }
    if (!(lhs.index == rhs.index)) {
        return false;
    }
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> MemOp::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<MemOp>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline MemOp MemOp::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<MemOp>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::MemOp>::serialize(const Acir::MemOp& obj, Serializer& serializer)
{
    serializer.increase_container_depth();
    serde::Serializable<decltype(obj.operation)>::serialize(obj.operation, serializer);
    serde::Serializable<decltype(obj.index)>::serialize(obj.index, serializer);
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
    serializer.decrease_container_depth();
}
 
template <>
template <typename Deserializer>
Acir::MemOp serde::Deserializable<Acir::MemOp>::deserialize(Deserializer& deserializer)
{
    deserializer.increase_container_depth();
    Acir::MemOp obj;
    obj.operation = serde::Deserializable<decltype(obj.operation)>::deserialize(deserializer);
    obj.index = serde::Deserializable<decltype(obj.index)>::deserialize(deserializer);
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    deserializer.decrease_container_depth();
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const MemoryAddress& lhs, const MemoryAddress& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> MemoryAddress::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<MemoryAddress>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline MemoryAddress MemoryAddress::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<MemoryAddress>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::MemoryAddress>::serialize(const Acir::MemoryAddress& obj, Serializer& serializer)
{
    serializer.increase_container_depth();
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
    serializer.decrease_container_depth();
}
 
template <>
template <typename Deserializer>
Acir::MemoryAddress serde::Deserializable<Acir::MemoryAddress>::deserialize(Deserializer& deserializer)
{
    deserializer.increase_container_depth();
    Acir::MemoryAddress obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    deserializer.decrease_container_depth();
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const MemoryAddress::Direct& lhs, const MemoryAddress::Direct& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> MemoryAddress::Direct::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<MemoryAddress::Direct>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline MemoryAddress::Direct MemoryAddress::Direct::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<MemoryAddress::Direct>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::MemoryAddress::Direct>::serialize(const Acir::MemoryAddress::Direct& obj,
                                                                 Serializer& serializer)
{
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
}
 
template <>
template <typename Deserializer>
Acir::MemoryAddress::Direct serde::Deserializable<Acir::MemoryAddress::Direct>::deserialize(Deserializer& deserializer)
{
    Acir::MemoryAddress::Direct obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const MemoryAddress::Relative& lhs, const MemoryAddress::Relative& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> MemoryAddress::Relative::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<MemoryAddress::Relative>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline MemoryAddress::Relative MemoryAddress::Relative::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<MemoryAddress::Relative>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::MemoryAddress::Relative>::serialize(const Acir::MemoryAddress::Relative& obj,
                                                                   Serializer& serializer)
{
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
}
 
template <>
template <typename Deserializer>
Acir::MemoryAddress::Relative serde::Deserializable<Acir::MemoryAddress::Relative>::deserialize(
    Deserializer& deserializer)
{
    Acir::MemoryAddress::Relative obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const Opcode& lhs, const Opcode& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> Opcode::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<Opcode>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline Opcode Opcode::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<Opcode>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::Opcode>::serialize(const Acir::Opcode& obj, Serializer& serializer)
{
    serializer.increase_container_depth();
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
    serializer.decrease_container_depth();
}
 
template <>
template <typename Deserializer>
Acir::Opcode serde::Deserializable<Acir::Opcode>::deserialize(Deserializer& deserializer)
{
    deserializer.increase_container_depth();
    Acir::Opcode obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    deserializer.decrease_container_depth();
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const Opcode::AssertZero& lhs, const Opcode::AssertZero& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> Opcode::AssertZero::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<Opcode::AssertZero>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline Opcode::AssertZero Opcode::AssertZero::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<Opcode::AssertZero>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::Opcode::AssertZero>::serialize(const Acir::Opcode::AssertZero& obj,
                                                              Serializer& serializer)
{
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
}
 
template <>
template <typename Deserializer>
Acir::Opcode::AssertZero serde::Deserializable<Acir::Opcode::AssertZero>::deserialize(Deserializer& deserializer)
{
    Acir::Opcode::AssertZero obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const Opcode::BlackBoxFuncCall& lhs, const Opcode::BlackBoxFuncCall& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> Opcode::BlackBoxFuncCall::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<Opcode::BlackBoxFuncCall>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline Opcode::BlackBoxFuncCall Opcode::BlackBoxFuncCall::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<Opcode::BlackBoxFuncCall>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::Opcode::BlackBoxFuncCall>::serialize(const Acir::Opcode::BlackBoxFuncCall& obj,
                                                                    Serializer& serializer)
{
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
}
 
template <>
template <typename Deserializer>
Acir::Opcode::BlackBoxFuncCall serde::Deserializable<Acir::Opcode::BlackBoxFuncCall>::deserialize(
    Deserializer& deserializer)
{
    Acir::Opcode::BlackBoxFuncCall obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const Opcode::MemoryOp& lhs, const Opcode::MemoryOp& rhs)
{
    if (!(lhs.block_id == rhs.block_id)) {
        return false;
    }
    if (!(lhs.op == rhs.op)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> Opcode::MemoryOp::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<Opcode::MemoryOp>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline Opcode::MemoryOp Opcode::MemoryOp::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<Opcode::MemoryOp>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::Opcode::MemoryOp>::serialize(const Acir::Opcode::MemoryOp& obj, Serializer& serializer)
{
    serde::Serializable<decltype(obj.block_id)>::serialize(obj.block_id, serializer);
    serde::Serializable<decltype(obj.op)>::serialize(obj.op, serializer);
}
 
template <>
template <typename Deserializer>
Acir::Opcode::MemoryOp serde::Deserializable<Acir::Opcode::MemoryOp>::deserialize(Deserializer& deserializer)
{
    Acir::Opcode::MemoryOp obj;
    obj.block_id = serde::Deserializable<decltype(obj.block_id)>::deserialize(deserializer);
    obj.op = serde::Deserializable<decltype(obj.op)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const Opcode::MemoryInit& lhs, const Opcode::MemoryInit& rhs)
{
    if (!(lhs.block_id == rhs.block_id)) {
        return false;
    }
    if (!(lhs.init == rhs.init)) {
        return false;
    }
    if (!(lhs.block_type == rhs.block_type)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> Opcode::MemoryInit::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<Opcode::MemoryInit>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline Opcode::MemoryInit Opcode::MemoryInit::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<Opcode::MemoryInit>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::Opcode::MemoryInit>::serialize(const Acir::Opcode::MemoryInit& obj,
                                                              Serializer& serializer)
{
    serde::Serializable<decltype(obj.block_id)>::serialize(obj.block_id, serializer);
    serde::Serializable<decltype(obj.init)>::serialize(obj.init, serializer);
    serde::Serializable<decltype(obj.block_type)>::serialize(obj.block_type, serializer);
}
 
template <>
template <typename Deserializer>
Acir::Opcode::MemoryInit serde::Deserializable<Acir::Opcode::MemoryInit>::deserialize(Deserializer& deserializer)
{
    Acir::Opcode::MemoryInit obj;
    obj.block_id = serde::Deserializable<decltype(obj.block_id)>::deserialize(deserializer);
    obj.init = serde::Deserializable<decltype(obj.init)>::deserialize(deserializer);
    obj.block_type = serde::Deserializable<decltype(obj.block_type)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const Opcode::BrilligCall& lhs, const Opcode::BrilligCall& rhs)
{
    if (!(lhs.id == rhs.id)) {
        return false;
    }
    if (!(lhs.inputs == rhs.inputs)) {
        return false;
    }
    if (!(lhs.outputs == rhs.outputs)) {
        return false;
    }
    if (!(lhs.predicate == rhs.predicate)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> Opcode::BrilligCall::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<Opcode::BrilligCall>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline Opcode::BrilligCall Opcode::BrilligCall::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<Opcode::BrilligCall>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::Opcode::BrilligCall>::serialize(const Acir::Opcode::BrilligCall& obj,
                                                               Serializer& serializer)
{
    serde::Serializable<decltype(obj.id)>::serialize(obj.id, serializer);
    serde::Serializable<decltype(obj.inputs)>::serialize(obj.inputs, serializer);
    serde::Serializable<decltype(obj.outputs)>::serialize(obj.outputs, serializer);
    serde::Serializable<decltype(obj.predicate)>::serialize(obj.predicate, serializer);
}
 
template <>
template <typename Deserializer>
Acir::Opcode::BrilligCall serde::Deserializable<Acir::Opcode::BrilligCall>::deserialize(Deserializer& deserializer)
{
    Acir::Opcode::BrilligCall obj;
    obj.id = serde::Deserializable<decltype(obj.id)>::deserialize(deserializer);
    obj.inputs = serde::Deserializable<decltype(obj.inputs)>::deserialize(deserializer);
    obj.outputs = serde::Deserializable<decltype(obj.outputs)>::deserialize(deserializer);
    obj.predicate = serde::Deserializable<decltype(obj.predicate)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const Opcode::Call& lhs, const Opcode::Call& rhs)
{
    if (!(lhs.id == rhs.id)) {
        return false;
    }
    if (!(lhs.inputs == rhs.inputs)) {
        return false;
    }
    if (!(lhs.outputs == rhs.outputs)) {
        return false;
    }
    if (!(lhs.predicate == rhs.predicate)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> Opcode::Call::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<Opcode::Call>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline Opcode::Call Opcode::Call::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<Opcode::Call>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::Opcode::Call>::serialize(const Acir::Opcode::Call& obj, Serializer& serializer)
{
    serde::Serializable<decltype(obj.id)>::serialize(obj.id, serializer);
    serde::Serializable<decltype(obj.inputs)>::serialize(obj.inputs, serializer);
    serde::Serializable<decltype(obj.outputs)>::serialize(obj.outputs, serializer);
    serde::Serializable<decltype(obj.predicate)>::serialize(obj.predicate, serializer);
}
 
template <>
template <typename Deserializer>
Acir::Opcode::Call serde::Deserializable<Acir::Opcode::Call>::deserialize(Deserializer& deserializer)
{
    Acir::Opcode::Call obj;
    obj.id = serde::Deserializable<decltype(obj.id)>::deserialize(deserializer);
    obj.inputs = serde::Deserializable<decltype(obj.inputs)>::deserialize(deserializer);
    obj.outputs = serde::Deserializable<decltype(obj.outputs)>::deserialize(deserializer);
    obj.predicate = serde::Deserializable<decltype(obj.predicate)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const OpcodeLocation& lhs, const OpcodeLocation& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> OpcodeLocation::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<OpcodeLocation>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline OpcodeLocation OpcodeLocation::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<OpcodeLocation>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::OpcodeLocation>::serialize(const Acir::OpcodeLocation& obj, Serializer& serializer)
{
    serializer.increase_container_depth();
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
    serializer.decrease_container_depth();
}
 
template <>
template <typename Deserializer>
Acir::OpcodeLocation serde::Deserializable<Acir::OpcodeLocation>::deserialize(Deserializer& deserializer)
{
    deserializer.increase_container_depth();
    Acir::OpcodeLocation obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    deserializer.decrease_container_depth();
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const OpcodeLocation::Acir& lhs, const OpcodeLocation::Acir& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> OpcodeLocation::Acir::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<OpcodeLocation::Acir>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline OpcodeLocation::Acir OpcodeLocation::Acir::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<OpcodeLocation::Acir>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::OpcodeLocation::Acir>::serialize(const Acir::OpcodeLocation::Acir& obj,
                                                                Serializer& serializer)
{
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
}
 
template <>
template <typename Deserializer>
Acir::OpcodeLocation::Acir serde::Deserializable<Acir::OpcodeLocation::Acir>::deserialize(Deserializer& deserializer)
{
    Acir::OpcodeLocation::Acir obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const OpcodeLocation::Brillig& lhs, const OpcodeLocation::Brillig& rhs)
{
    if (!(lhs.acir_index == rhs.acir_index)) {
        return false;
    }
    if (!(lhs.brillig_index == rhs.brillig_index)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> OpcodeLocation::Brillig::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<OpcodeLocation::Brillig>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline OpcodeLocation::Brillig OpcodeLocation::Brillig::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<OpcodeLocation::Brillig>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::OpcodeLocation::Brillig>::serialize(const Acir::OpcodeLocation::Brillig& obj,
                                                                   Serializer& serializer)
{
    serde::Serializable<decltype(obj.acir_index)>::serialize(obj.acir_index, serializer);
    serde::Serializable<decltype(obj.brillig_index)>::serialize(obj.brillig_index, serializer);
}
 
template <>
template <typename Deserializer>
Acir::OpcodeLocation::Brillig serde::Deserializable<Acir::OpcodeLocation::Brillig>::deserialize(
    Deserializer& deserializer)
{
    Acir::OpcodeLocation::Brillig obj;
    obj.acir_index = serde::Deserializable<decltype(obj.acir_index)>::deserialize(deserializer);
    obj.brillig_index = serde::Deserializable<decltype(obj.brillig_index)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const Program& lhs, const Program& rhs)
{
    if (!(lhs.functions == rhs.functions)) {
        return false;
    }
    if (!(lhs.unconstrained_functions == rhs.unconstrained_functions)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> Program::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<Program>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline Program Program::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<Program>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::Program>::serialize(const Acir::Program& obj, Serializer& serializer)
{
    serializer.increase_container_depth();
    serde::Serializable<decltype(obj.functions)>::serialize(obj.functions, serializer);
    serde::Serializable<decltype(obj.unconstrained_functions)>::serialize(obj.unconstrained_functions, serializer);
    serializer.decrease_container_depth();
}
 
template <>
template <typename Deserializer>
Acir::Program serde::Deserializable<Acir::Program>::deserialize(Deserializer& deserializer)
{
    deserializer.increase_container_depth();
    Acir::Program obj;
    obj.functions = serde::Deserializable<decltype(obj.functions)>::deserialize(deserializer);
    obj.unconstrained_functions =
        serde::Deserializable<decltype(obj.unconstrained_functions)>::deserialize(deserializer);
    deserializer.decrease_container_depth();
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const ProgramWithoutBrillig& lhs, const ProgramWithoutBrillig& rhs)
{
    if (!(lhs.functions == rhs.functions)) {
        return false;
    }
    if (!(lhs.unconstrained_functions == rhs.unconstrained_functions)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> ProgramWithoutBrillig::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<ProgramWithoutBrillig>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline ProgramWithoutBrillig ProgramWithoutBrillig::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<ProgramWithoutBrillig>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::ProgramWithoutBrillig>::serialize(const Acir::ProgramWithoutBrillig& obj,
                                                                 Serializer& serializer)
{
    serializer.increase_container_depth();
    serde::Serializable<decltype(obj.functions)>::serialize(obj.functions, serializer);
    serde::Serializable<decltype(obj.unconstrained_functions)>::serialize(obj.unconstrained_functions, serializer);
    serializer.decrease_container_depth();
}
 
template <>
template <typename Deserializer>
Acir::ProgramWithoutBrillig serde::Deserializable<Acir::ProgramWithoutBrillig>::deserialize(Deserializer& deserializer)
{
    deserializer.increase_container_depth();
    Acir::ProgramWithoutBrillig obj;
    obj.functions = serde::Deserializable<decltype(obj.functions)>::deserialize(deserializer);
    obj.unconstrained_functions =
        serde::Deserializable<decltype(obj.unconstrained_functions)>::deserialize(deserializer);
    deserializer.decrease_container_depth();
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const PublicInputs& lhs, const PublicInputs& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> PublicInputs::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<PublicInputs>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline PublicInputs PublicInputs::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<PublicInputs>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::PublicInputs>::serialize(const Acir::PublicInputs& obj, Serializer& serializer)
{
    serializer.increase_container_depth();
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
    serializer.decrease_container_depth();
}
 
template <>
template <typename Deserializer>
Acir::PublicInputs serde::Deserializable<Acir::PublicInputs>::deserialize(Deserializer& deserializer)
{
    deserializer.increase_container_depth();
    Acir::PublicInputs obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    deserializer.decrease_container_depth();
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const ValueOrArray& lhs, const ValueOrArray& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> ValueOrArray::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<ValueOrArray>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline ValueOrArray ValueOrArray::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<ValueOrArray>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::ValueOrArray>::serialize(const Acir::ValueOrArray& obj, Serializer& serializer)
{
    serializer.increase_container_depth();
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
    serializer.decrease_container_depth();
}
 
template <>
template <typename Deserializer>
Acir::ValueOrArray serde::Deserializable<Acir::ValueOrArray>::deserialize(Deserializer& deserializer)
{
    deserializer.increase_container_depth();
    Acir::ValueOrArray obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    deserializer.decrease_container_depth();
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const ValueOrArray::MemoryAddress& lhs, const ValueOrArray::MemoryAddress& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> ValueOrArray::MemoryAddress::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<ValueOrArray::MemoryAddress>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline ValueOrArray::MemoryAddress ValueOrArray::MemoryAddress::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<ValueOrArray::MemoryAddress>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::ValueOrArray::MemoryAddress>::serialize(const Acir::ValueOrArray::MemoryAddress& obj,
                                                                       Serializer& serializer)
{
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
}
 
template <>
template <typename Deserializer>
Acir::ValueOrArray::MemoryAddress serde::Deserializable<Acir::ValueOrArray::MemoryAddress>::deserialize(
    Deserializer& deserializer)
{
    Acir::ValueOrArray::MemoryAddress obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const ValueOrArray::HeapArray& lhs, const ValueOrArray::HeapArray& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> ValueOrArray::HeapArray::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<ValueOrArray::HeapArray>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline ValueOrArray::HeapArray ValueOrArray::HeapArray::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<ValueOrArray::HeapArray>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::ValueOrArray::HeapArray>::serialize(const Acir::ValueOrArray::HeapArray& obj,
                                                                   Serializer& serializer)
{
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
}
 
template <>
template <typename Deserializer>
Acir::ValueOrArray::HeapArray serde::Deserializable<Acir::ValueOrArray::HeapArray>::deserialize(
    Deserializer& deserializer)
{
    Acir::ValueOrArray::HeapArray obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const ValueOrArray::HeapVector& lhs, const ValueOrArray::HeapVector& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> ValueOrArray::HeapVector::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<ValueOrArray::HeapVector>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline ValueOrArray::HeapVector ValueOrArray::HeapVector::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<ValueOrArray::HeapVector>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::ValueOrArray::HeapVector>::serialize(const Acir::ValueOrArray::HeapVector& obj,
                                                                    Serializer& serializer)
{
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
}
 
template <>
template <typename Deserializer>
Acir::ValueOrArray::HeapVector serde::Deserializable<Acir::ValueOrArray::HeapVector>::deserialize(
    Deserializer& deserializer)
{
    Acir::ValueOrArray::HeapVector obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    return obj;
}
 
namespace Acir {
 
inline bool operator==(const Witness& lhs, const Witness& rhs)
{
    if (!(lhs.value == rhs.value)) {
        return false;
    }
    return true;
}
 
inline std::vector<uint8_t> Witness::bincodeSerialize() const
{
    auto serializer = serde::BincodeSerializer();
    serde::Serializable<Witness>::serialize(*this, serializer);
    return std::move(serializer).bytes();
}
 
inline Witness Witness::bincodeDeserialize(std::vector<uint8_t> input)
{
    auto deserializer = serde::BincodeDeserializer(input);
    auto value = serde::Deserializable<Witness>::deserialize(deserializer);
    if (deserializer.get_buffer_offset() < input.size()) {
        throw_or_abort("Some input bytes were not read");
    }
    return value;
}
 
} // end of namespace Acir
 
template <>
template <typename Serializer>
void serde::Serializable<Acir::Witness>::serialize(const Acir::Witness& obj, Serializer& serializer)
{
    serializer.increase_container_depth();
    serde::Serializable<decltype(obj.value)>::serialize(obj.value, serializer);
    serializer.decrease_container_depth();
}
 
template <>
template <typename Deserializer>
Acir::Witness serde::Deserializable<Acir::Witness>::deserialize(Deserializer& deserializer)
{
    deserializer.increase_container_depth();
    Acir::Witness obj;
    obj.value = serde::Deserializable<decltype(obj.value)>::deserialize(deserializer);
    deserializer.decrease_container_depth();
    return obj;
}