def "workspace id of project transforms is unique per build with included builds"() {
        // The setup here is in a way that the project path of the project dependency in the same build
        // is the same as the buildTreePath of the substituted project dependency in the included build.
        // This way we test that you can't do special handling for "local" project dependencies when calculating

      Value value, bool can_be_deduplicated, int& index);

  // Build TFLite tensor from the given type. This function is for tfl.lstm
  // intermediates, which should have UniformQuantizedType.
  std::optional<BufferOffset<tflite::Tensor>> BuildTensorFromType(
      mlir::Type type, const std::string& name);

  // Builds TF::VariantType from the given element type. Returns std::nullopt if

//
// Usage:
//
//	go build [-o output] [build flags] [packages]
//
// Build compiles the packages named by the import paths,
// along with their dependencies, but it does not install the results.
//
// If the arguments to build are a list of .go files from a single directory,
// build treats them as a list of source files specifying a single package.
//
// When compiling packages, build ignores files that end in '_test.go'.
//

// shared library. Some systems, such as Ubuntu, always add
// --build-id to every link, but we don't want a build ID when we are
// producing an object file. On some of those system a plain -r (not
// -Wl,-r) will turn off --build-id, but clang 3.0 doesn't support a
// plain -r. I don't know how to turn off --build-id when using clang
// other than passing a trailing --build-id=none. So that is what we

            ]]>
          </code>
        </codeSegment>
      </codeSegments>
    </class>
    <class>
      <name>Build</name>
      <version>3.0.0+</version>
      <superClass>BuildBase</superClass>
      <description>
        The {@code &lt;build>} element contains information required to build the project.
        Default values are defined in Super POM.
      </description>
      <fields>
        <field>

  return getValue();
}

// Builds a constant op with the specified attribute `value`. The result
// op's type is deduced from `value`; if `value` is of scalar type,
// wraps it up with a tensor type of empty shape.
// TODO(jpienaar): This one differs from the autogenerated one as it takes an
// attribute but always creates an ElementsAttr internally.
void ConstOp::build(OpBuilder& builder, OperationState& result,

      op.getOperation());
}

void NotEqualOp::build(OpBuilder &builder, OperationState &result, Value x,
                       Value y, BoolAttr incompatible_shape_error) {
  auto result_type = DeduceEqualCmpOpType(&builder, result.location, x, y,
                                          incompatible_shape_error);
  return build(builder, result, result_type, x, y, incompatible_shape_error);
}

  if (!val_type.hasRank())
    return TFL::TopKV2Op::build(
        *builder, result, UnrankedTensorType::get(val_type.getElementType()),
        UnrankedTensorType::get(k.getType()), input, k);

  // Resultant shape is value.shape[:-1] + [k]
  std::vector<int64_t> shape(val_type.getShape());
  shape[shape.size() - 1] = const_k;
  TFL::TopKV2Op::build(
      *builder, result,

		// That test doesn't make much sense, and I'm not sure it ever works.
		// Just generate trampoline for now (which will turn a direct call to
		// an indirect call, which at least builds).
		limit = 1
	}

	// First pass: assign addresses assuming the program is small and will
	// not require trampoline generation.
	big := false
	for _, s := range ctxt.Textp {

	p, err := packageDataCache.Do(r.path, func() (*build.Package, error) {
		loaded = true
		var data struct {
			p   *build.Package
			err error
		}
		if r.dir != "" {
			var buildMode build.ImportMode
			buildContext := cfg.BuildContext
			if !cfg.ModulesEnabled {
				buildMode = build.ImportComment
			} else {