// the C API defined in stream_executor.h. A class "CSomething" represents a
// "Something" that can be manipulated via calls in the C interface.
class CPlatform : public Platform {
 public:
  explicit CPlatform(SP_Platform platform,
                     void (*destroy_platform)(SP_Platform*),
                     SP_PlatformFns platform_fns,
                     void (*destroy_platform_fns)(SP_PlatformFns*),

  platform_fns_.destroy_device_fns(&platform_, &device_fns_);
  platform_fns_.destroy_stream_executor(&platform_, &stream_executor_);
  platform_fns_.destroy_timer_fns(&platform_, &timer_fns_);
  destroy_platform_(&platform_);
  destroy_platform_fns_(&platform_fns_);
}

absl::StatusOr<std::unique_ptr<DeviceDescription>>
CPlatform::DescriptionForDevice(int ordinal) const {
  // TODO(annarev): see if we can get StreamExecutor instance

int XlaDevice::Metadata::device_ordinal() const { return device_ordinal_; }

se::Platform* XlaDevice::Metadata::platform() const { return platform_; }

xla::LocalClient* XlaDevice::Metadata::client() const {
  auto client = xla::ClientLibrary::GetOrCreateLocalClient(platform_);
  return client.value();
}

const DeviceType& XlaDevice::Metadata::jit_device_type() const {
  return device_type_;

By using the `belongsTo` keyword without further parameter (platform **is** virtual), we declare that all modules belong to the same _virtual platform_, which is treated specially by the engine.
A virtual platform will not be retrieved from a repository.
The identifier, in this case `com.fasterxml.jackson:jackson-virtual-platform`, is something you as the build author define yourself.

  TF_ASSERT_OK(status);
  absl::StatusOr<Platform*> maybe_platform =
      PlatformManager::PlatformWithName("MY_DEVICE");
  TF_ASSERT_OK(maybe_platform.status());
  Platform* platform = std::move(maybe_platform).value();
  ASSERT_EQ(platform->Name(), test_util::kDeviceName);
  ASSERT_EQ(platform->VisibleDeviceCount(), test_util::kDeviceCount);

  absl::StatusOr<StreamExecutor*> maybe_executor =

  // Which hardware device in the client's platform this XlaDevice controls.
  const int device_ordinal_;
  // The name/type of this XlaDevice. eg. "XLA_GPU".
  const DeviceType device_name_;
  // The name of the device that is used to compile Ops for this XlaDevice.
  const DeviceType jit_device_name_;
  // The platform for this device.
  se::Platform* const platform_;  // Not owned.

	msect      uint32
	sect       []MachoSect
	flag       uint32
}

// MachoPlatformLoad represents a LC_VERSION_MIN_* or
// LC_BUILD_VERSION load command.
type MachoPlatformLoad struct {
	platform MachoPlatform // One of PLATFORM_* constants.
	cmd      MachoLoad
}

type MachoLoad struct {
	type_ uint32
	data  []uint32
}

type MachoPlatform int

/*
 * Total amount of space to reserve at the start of the file

A dependency on a platform is created using the `platform` keyword:

.Getting versions declared in a platform
====
include::sample[dir="snippets/java-platform/recommender/kotlin/consumer",files="build.gradle.kts[tags=get-recommendations]"]
include::sample[dir="snippets/java-platform/recommender/groovy/consumer",files="build.gradle[tags=get-recommendations]"]
====

--

### Extensibility platform

This is a platform that builds on the core, software and JVM platforms to add support for extending Gradle by implementing and applying plugins.

This platform includes the plugin publishing plugin and the plugin portal.

### Native platform

This is a platform that builds on the core and software platforms to add support for developing native software.

        _ * component.targetPlatforms >> [requirement("platform1"), requirement("platform2")]
        1 * platforms.resolve(NativePlatform, requirement("platform1")) >> platform
        1 * platforms.resolve(NativePlatform, requirement("platform2")) >> platform2

        then:
        createdBinaries == ([
            "platform1SharedLibrary",
            "platform1StaticLibrary",
            "platform2SharedLibrary",