tools/fidl/fidlgen_hlcpp/goldens/time.cc.golden

// WARNING: This file is machine generated by fidlgen.

// fidl_experiment = output_index_json

#include <test/time/cpp/fidl.h>

#include "lib/fidl/cpp/internal/implementation.h"

//
// Domain objects definitions
//
namespace test {
namespace time {

extern "C" const fidl_type_t test_time_AllInstantsTable;
const fidl_type_t* AllInstants::FidlType = &test_time_AllInstantsTable;

void AllInstants::Encode(::fidl::Encoder* _encoder, size_t _offset,
                         std::optional<::fidl::HandleInformation> maybe_handle_info) {
  if (::fidl::IsMemcpyCompatible<AllInstants>::value) {
    memcpy(_encoder->template GetPtr<AllInstants>(_offset), this, sizeof(AllInstants));
  } else {
    ::fidl::Encode(_encoder, &monotonic, _offset + 0);
    ::fidl::Encode(_encoder, &boot, _offset + 8);
    ::fidl::Encode(_encoder, &monotonic_ticks, _offset + 16);
    ::fidl::Encode(_encoder, &boot_ticks, _offset + 24);
  }
}

void AllInstants::Decode(::fidl::Decoder* _decoder, AllInstants* _value, size_t _offset) {
  if (::fidl::IsMemcpyCompatible<AllInstants>::value) {
    memcpy(_value, _decoder->template GetPtr<AllInstants>(_offset), sizeof(AllInstants));
  } else {
    ::fidl::Decode(_decoder, &_value->monotonic, _offset + 0);
    ::fidl::Decode(_decoder, &_value->boot, _offset + 8);
    ::fidl::Decode(_decoder, &_value->monotonic_ticks, _offset + 16);
    ::fidl::Decode(_decoder, &_value->boot_ticks, _offset + 24);
  }
}

zx_status_t AllInstants::Clone(AllInstants* _result) const {
  zx_status_t _status = ::fidl::Clone(monotonic, &_result->monotonic);
  if (_status != ZX_OK)
    return _status;
  _status = ::fidl::Clone(boot, &_result->boot);
  if (_status != ZX_OK)
    return _status;
  _status = ::fidl::Clone(monotonic_ticks, &_result->monotonic_ticks);
  if (_status != ZX_OK)
    return _status;
  _status = ::fidl::Clone(boot_ticks, &_result->boot_ticks);
  if (_status != ZX_OK)
    return _status;
  return ZX_OK;
}

extern "C" const fidl_type_t test_time_ComplexInstantsTable;
const fidl_type_t* ComplexInstants::FidlType = &test_time_ComplexInstantsTable;

ComplexInstants::ComplexInstants() {}

ComplexInstants::ComplexInstants(ComplexInstants&& other) {
  field_presence_ = other.field_presence_;
  if (field_presence_.IsSet<0>()) {
    Construct(&monotonic_value_.value, std::move(other.monotonic_value_.value));
  }
  if (field_presence_.IsSet<1>()) {
    Construct(&boot_value_.value, std::move(other.boot_value_.value));
  }
  if (field_presence_.IsSet<2>()) {
    Construct(&monotonic_ticks_value_.value, std::move(other.monotonic_ticks_value_.value));
  }
  if (field_presence_.IsSet<3>()) {
    Construct(&boot_ticks_value_.value, std::move(other.boot_ticks_value_.value));
  }
}

ComplexInstants::~ComplexInstants() {
  if (field_presence_.IsSet<0>()) {
    Destruct(&monotonic_value_.value);
  }
  if (field_presence_.IsSet<1>()) {
    Destruct(&boot_value_.value);
  }
  if (field_presence_.IsSet<2>()) {
    Destruct(&monotonic_ticks_value_.value);
  }
  if (field_presence_.IsSet<3>()) {
    Destruct(&boot_ticks_value_.value);
  }
}

ComplexInstants& ComplexInstants::operator=(ComplexInstants&& other) {
  if (other.field_presence_.IsSet<0>()) {
    if (field_presence_.IsSet<0>()) {
      monotonic_value_.value = std::move(other.monotonic_value_.value);
    } else {
      field_presence_.Set<0>();
      Construct(&monotonic_value_.value, std::move(other.monotonic_value_.value));
    }
  } else if (field_presence_.IsSet<0>()) {
    field_presence_.Clear<0>();
    Destruct(&monotonic_value_.value);
  }
  if (other.field_presence_.IsSet<1>()) {
    if (field_presence_.IsSet<1>()) {
      boot_value_.value = std::move(other.boot_value_.value);
    } else {
      field_presence_.Set<1>();
      Construct(&boot_value_.value, std::move(other.boot_value_.value));
    }
  } else if (field_presence_.IsSet<1>()) {
    field_presence_.Clear<1>();
    Destruct(&boot_value_.value);
  }
  if (other.field_presence_.IsSet<2>()) {
    if (field_presence_.IsSet<2>()) {
      monotonic_ticks_value_.value = std::move(other.monotonic_ticks_value_.value);
    } else {
      field_presence_.Set<2>();
      Construct(&monotonic_ticks_value_.value, std::move(other.monotonic_ticks_value_.value));
    }
  } else if (field_presence_.IsSet<2>()) {
    field_presence_.Clear<2>();
    Destruct(&monotonic_ticks_value_.value);
  }
  if (other.field_presence_.IsSet<3>()) {
    if (field_presence_.IsSet<3>()) {
      boot_ticks_value_.value = std::move(other.boot_ticks_value_.value);
    } else {
      field_presence_.Set<3>();
      Construct(&boot_ticks_value_.value, std::move(other.boot_ticks_value_.value));
    }
  } else if (field_presence_.IsSet<3>()) {
    field_presence_.Clear<3>();
    Destruct(&boot_ticks_value_.value);
  }
  return *this;
}

bool ComplexInstants::IsEmpty() const {
  return field_presence_.IsEmpty();
}
ComplexInstants& ComplexInstants::set_monotonic(::std::array<::fidl::basic_time<ZX_CLOCK_MONOTONIC>, 10> _value) {
  if (!field_presence_.IsSet<0>()) {
    field_presence_.Set<0>();
    Construct(&monotonic_value_.value, std::move(_value));
  } else {
    monotonic_value_.value = std::move(_value);
  }
  return *this;
}
ComplexInstants& ComplexInstants::set_boot(::std::vector<::fidl::basic_time<ZX_CLOCK_BOOT>> _value) {
  if (!field_presence_.IsSet<1>()) {
    field_presence_.Set<1>();
    Construct(&boot_value_.value, std::move(_value));
  } else {
    boot_value_.value = std::move(_value);
  }
  return *this;
}
ComplexInstants& ComplexInstants::set_monotonic_ticks(::std::array<::fidl::basic_ticks<ZX_CLOCK_MONOTONIC>, 10> _value) {
  if (!field_presence_.IsSet<2>()) {
    field_presence_.Set<2>();
    Construct(&monotonic_ticks_value_.value, std::move(_value));
  } else {
    monotonic_ticks_value_.value = std::move(_value);
  }
  return *this;
}
ComplexInstants& ComplexInstants::set_boot_ticks(::std::array<::fidl::basic_ticks<ZX_CLOCK_BOOT>, 10> _value) {
  if (!field_presence_.IsSet<3>()) {
    field_presence_.Set<3>();
    Construct(&boot_ticks_value_.value, std::move(_value));
  } else {
    boot_ticks_value_.value = std::move(_value);
  }
  return *this;
}

void ComplexInstants::Encode(::fidl::Encoder* _encoder, size_t _offset,
                             std::optional<::fidl::HandleInformation> maybe_handle_info) {
  size_t max_ordinal = MaxOrdinal();
  ::fidl::EncodeVectorPointer(_encoder, max_ordinal, _offset);
  if (max_ordinal == 0) return;
  [[maybe_unused]] size_t base = _encoder->Alloc(max_ordinal * sizeof(fidl_envelope_t));
  if (field_presence_.IsSet<0>()) {
    const size_t length_before = _encoder->CurrentLength();
    const size_t handles_before = _encoder->CurrentHandleCount();

    size_t envelope_base = base + (1 - 1) * sizeof(fidl_envelope_t);

    if (::fidl::EncodingInlineSize<::std::array<::fidl::basic_time<ZX_CLOCK_MONOTONIC>, 10>>(_encoder) <= FIDL_ENVELOPE_INLINING_SIZE_THRESHOLD) {
      ::fidl::Encode(_encoder, &monotonic_value_.value, envelope_base);

      fidl_envelope_t* envelope = _encoder->GetPtr<fidl_envelope_t>(envelope_base);
      envelope->num_handles = static_cast<uint16_t>(_encoder->CurrentHandleCount() - handles_before);
      envelope->flags = FIDL_ENVELOPE_FLAGS_INLINING_MASK;
    } else {
      ::fidl::Encode(
          _encoder,
          &monotonic_value_.value,
          _encoder->Alloc(::fidl::EncodingInlineSize<::std::array<::fidl::basic_time<ZX_CLOCK_MONOTONIC>, 10>, ::fidl::Encoder>(_encoder)));

      fidl_envelope_t* envelope = _encoder->GetPtr<fidl_envelope_t>(envelope_base);
      envelope->num_bytes = static_cast<uint32_t>(_encoder->CurrentLength() - length_before);
      envelope->num_handles = static_cast<uint16_t>(_encoder->CurrentHandleCount() - handles_before);
      envelope->flags = 0;
    }
  }
  if (field_presence_.IsSet<1>()) {
    const size_t length_before = _encoder->CurrentLength();
    const size_t handles_before = _encoder->CurrentHandleCount();

    size_t envelope_base = base + (2 - 1) * sizeof(fidl_envelope_t);

    if (::fidl::EncodingInlineSize<::std::vector<::fidl::basic_time<ZX_CLOCK_BOOT>>>(_encoder) <= FIDL_ENVELOPE_INLINING_SIZE_THRESHOLD) {
      ::fidl::Encode(_encoder, &boot_value_.value, envelope_base);

      fidl_envelope_t* envelope = _encoder->GetPtr<fidl_envelope_t>(envelope_base);
      envelope->num_handles = static_cast<uint16_t>(_encoder->CurrentHandleCount() - handles_before);
      envelope->flags = FIDL_ENVELOPE_FLAGS_INLINING_MASK;
    } else {
      ::fidl::Encode(
          _encoder,
          &boot_value_.value,
          _encoder->Alloc(::fidl::EncodingInlineSize<::std::vector<::fidl::basic_time<ZX_CLOCK_BOOT>>, ::fidl::Encoder>(_encoder)));

      fidl_envelope_t* envelope = _encoder->GetPtr<fidl_envelope_t>(envelope_base);
      envelope->num_bytes = static_cast<uint32_t>(_encoder->CurrentLength() - length_before);
      envelope->num_handles = static_cast<uint16_t>(_encoder->CurrentHandleCount() - handles_before);
      envelope->flags = 0;
    }
  }
  if (field_presence_.IsSet<2>()) {
    const size_t length_before = _encoder->CurrentLength();
    const size_t handles_before = _encoder->CurrentHandleCount();

    size_t envelope_base = base + (3 - 1) * sizeof(fidl_envelope_t);

    if (::fidl::EncodingInlineSize<::std::array<::fidl::basic_ticks<ZX_CLOCK_MONOTONIC>, 10>>(_encoder) <= FIDL_ENVELOPE_INLINING_SIZE_THRESHOLD) {
      ::fidl::Encode(_encoder, &monotonic_ticks_value_.value, envelope_base);

      fidl_envelope_t* envelope = _encoder->GetPtr<fidl_envelope_t>(envelope_base);
      envelope->num_handles = static_cast<uint16_t>(_encoder->CurrentHandleCount() - handles_before);
      envelope->flags = FIDL_ENVELOPE_FLAGS_INLINING_MASK;
    } else {
      ::fidl::Encode(
          _encoder,
          &monotonic_ticks_value_.value,
          _encoder->Alloc(::fidl::EncodingInlineSize<::std::array<::fidl::basic_ticks<ZX_CLOCK_MONOTONIC>, 10>, ::fidl::Encoder>(_encoder)));

      fidl_envelope_t* envelope = _encoder->GetPtr<fidl_envelope_t>(envelope_base);
      envelope->num_bytes = static_cast<uint32_t>(_encoder->CurrentLength() - length_before);
      envelope->num_handles = static_cast<uint16_t>(_encoder->CurrentHandleCount() - handles_before);
      envelope->flags = 0;
    }
  }
  if (field_presence_.IsSet<3>()) {
    const size_t length_before = _encoder->CurrentLength();
    const size_t handles_before = _encoder->CurrentHandleCount();

    size_t envelope_base = base + (4 - 1) * sizeof(fidl_envelope_t);

    if (::fidl::EncodingInlineSize<::std::array<::fidl::basic_ticks<ZX_CLOCK_BOOT>, 10>>(_encoder) <= FIDL_ENVELOPE_INLINING_SIZE_THRESHOLD) {
      ::fidl::Encode(_encoder, &boot_ticks_value_.value, envelope_base);

      fidl_envelope_t* envelope = _encoder->GetPtr<fidl_envelope_t>(envelope_base);
      envelope->num_handles = static_cast<uint16_t>(_encoder->CurrentHandleCount() - handles_before);
      envelope->flags = FIDL_ENVELOPE_FLAGS_INLINING_MASK;
    } else {
      ::fidl::Encode(
          _encoder,
          &boot_ticks_value_.value,
          _encoder->Alloc(::fidl::EncodingInlineSize<::std::array<::fidl::basic_ticks<ZX_CLOCK_BOOT>, 10>, ::fidl::Encoder>(_encoder)));

      fidl_envelope_t* envelope = _encoder->GetPtr<fidl_envelope_t>(envelope_base);
      envelope->num_bytes = static_cast<uint32_t>(_encoder->CurrentLength() - length_before);
      envelope->num_handles = static_cast<uint16_t>(_encoder->CurrentHandleCount() - handles_before);
      envelope->flags = 0;
    }
  }
}

void ComplexInstants::Decode(::fidl::Decoder* _decoder, ComplexInstants* _value, size_t _offset) {
  fidl_vector_t* encoded = _decoder->GetPtr<fidl_vector_t>(_offset);
  [[maybe_unused]] size_t base;
  [[maybe_unused]] size_t count;
  if (!encoded->data) {
    goto clear_all;
  }

  base = _decoder->GetOffset(encoded->data);
  count = encoded->count;
  if (count >= 1) {
    size_t envelope_base = base + (1 - 1) * sizeof(fidl_envelope_t);
    fidl_envelope_t* envelope = _decoder->GetPtr<fidl_envelope_t>(envelope_base);
    if (*reinterpret_cast<const void* const*>(envelope) != nullptr) {
      ::fidl::Decode(_decoder, _value->mutable_monotonic(),
                     _decoder->EnvelopeValueOffset(envelope));
    } else {
      _value->clear_monotonic();
    }
  } else {
    goto done_1;
  }
  if (count >= 2) {
    size_t envelope_base = base + (2 - 1) * sizeof(fidl_envelope_t);
    fidl_envelope_t* envelope = _decoder->GetPtr<fidl_envelope_t>(envelope_base);
    if (*reinterpret_cast<const void* const*>(envelope) != nullptr) {
      ::fidl::Decode(_decoder, _value->mutable_boot(),
                     _decoder->EnvelopeValueOffset(envelope));
    } else {
      _value->clear_boot();
    }
  } else {
    goto done_2;
  }
  if (count >= 3) {
    size_t envelope_base = base + (3 - 1) * sizeof(fidl_envelope_t);
    fidl_envelope_t* envelope = _decoder->GetPtr<fidl_envelope_t>(envelope_base);
    if (*reinterpret_cast<const void* const*>(envelope) != nullptr) {
      ::fidl::Decode(_decoder, _value->mutable_monotonic_ticks(),
                     _decoder->EnvelopeValueOffset(envelope));
    } else {
      _value->clear_monotonic_ticks();
    }
  } else {
    goto done_3;
  }
  if (count >= 4) {
    size_t envelope_base = base + (4 - 1) * sizeof(fidl_envelope_t);
    fidl_envelope_t* envelope = _decoder->GetPtr<fidl_envelope_t>(envelope_base);
    if (*reinterpret_cast<const void* const*>(envelope) != nullptr) {
      ::fidl::Decode(_decoder, _value->mutable_boot_ticks(),
                     _decoder->EnvelopeValueOffset(envelope));
    } else {
      _value->clear_boot_ticks();
    }
  } else {
    goto done_4;
  }

  return;

  // Clear unset values.
clear_all:
done_1:
  _value->clear_monotonic();
done_2:
  _value->clear_boot();
done_3:
  _value->clear_monotonic_ticks();
done_4:
  _value->clear_boot_ticks();
  return;
}

zx_status_t ComplexInstants::Clone(ComplexInstants* result) const {
  if (field_presence_.IsSet<0>()) {
    zx_status_t _status = ::fidl::Clone(monotonic_value_.value, result->mutable_monotonic());
    if (_status != ZX_OK)
      return _status;
  } else {
    result->clear_monotonic();
  }
  if (field_presence_.IsSet<1>()) {
    zx_status_t _status = ::fidl::Clone(boot_value_.value, result->mutable_boot());
    if (_status != ZX_OK)
      return _status;
  } else {
    result->clear_boot();
  }
  if (field_presence_.IsSet<2>()) {
    zx_status_t _status = ::fidl::Clone(monotonic_ticks_value_.value, result->mutable_monotonic_ticks());
    if (_status != ZX_OK)
      return _status;
  } else {
    result->clear_monotonic_ticks();
  }
  if (field_presence_.IsSet<3>()) {
    zx_status_t _status = ::fidl::Clone(boot_ticks_value_.value, result->mutable_boot_ticks());
    if (_status != ZX_OK)
      return _status;
  } else {
    result->clear_boot_ticks();
  }
  return ZX_OK;
}

//
// Proxies and stubs definitions
//
}  // namespace time
}  // namespace test