pathLock.Lock()
	pathCache[path] = pm
	pathLock.Unlock()

	return pm, nil
}

// ApplyPatchesToTarget takes a patch target and patches its "Data" using the patches
// stored in the patch manager. The resulted "Data" is always converted to JSON.
func (pm *PatchManager) ApplyPatchesToTarget(patchTarget *PatchTarget) error {
	var err error
	var patchedData []byte

	var found bool
	for _, pt := range pm.knownTargets {

    }

    for (int i = 0; i < op->getNumResults(); ++i) {
      Value result = op->getResult(i);
      // If the result has been quantized, it should only be used by a
      // `quantfork::QuantizeCastOp`. For this case, we uses the quantized
      // result to create the state and mark it immutable.
      if (result.hasOneUse()) {
        Operation* user = result.use_begin().getUser();

enum TranslationStatus { kTrSuccess, kTrFailure };

static int PrintFunctionResultMapping(const std::string &result,
                                      ModuleOp module) {
  // Build model from the resultant string to extract the return values from
  // their source of truth.
  auto model =
      tflite::FlatBufferModel::BuildFromBuffer(result.data(), result.size());
  if (!model) return kTrFailure;

		number = append(number, '"')
		return result[:1+len(number)], nil
	}
	// if CanonicalizeBytes needed more space than our slice provided, we may need to allocate again so use
	// append
	result = result[:1]
	result = append(result, number...)
	result = append(result, suffix...)
	result = append(result, '"')
	return result, nil
}

func (q Quantity) MarshalCBOR() ([]byte, error) {

May be followed by a `because` text.

| By conflict resolution : between versions <version>
| The dependency appeared multiple times, with different version requests.
This resulted in <<dependency_resolution#sec:version-conflict, conflict resolution>> to select the most appropriate version.

| By constraint

	Requires: []*analysis.Analyzer{inspect.Analyzer},
	Run:      run,
}

func run(pass *analysis.Pass) (interface{}, error) {
	inspect := pass.ResultOf[inspect.Analyzer].(*inspector.Inspector)

	nodeFilter := []ast.Node{
		(*ast.File)(nil),
		(*ast.RangeStmt)(nil),
		(*ast.ForStmt)(nil),
	}
	inspect.Nodes(nodeFilter, func(n ast.Node, push bool) bool {

// to the structural schema.
// Each CompilationResult may contain:
//   - non-nil Program, nil Error: The program was compiled successfully
//   - nil Program, non-nil Error: Compilation resulted in an error
//   - nil Program, nil Error: The provided rule was empty so compilation was not attempted
//

			default:
				return false
			}
		}

		send := func(result healEntryResult) bool {
			select {
			case <-ctx.Done():
				if !contextCanceled(ctx) {
					healingLogIf(ctx, ctx.Err())
				}
				return false
			case results <- result:
				return true
			}
		}

		// Note: updates from healEntry to tracker must be sent on results channel.
		healEntry := func(bucket string, entry metaCacheEntry) {

  absl::flat_hash_set<Node*> control_ret_nodes;

  timings.Reset({kTfMlirCategory, "convert_mlir_to_graph"});
  // Some or all passes are enabled. Convert MLIR module and return back
  // resulted graph.
  Status status = ConvertMlirToGraph(*module_ref, export_config, graph,
                                     flib_def, &control_ret_nodes);
  if (!status.ok()) {
    errors::AppendToMessage(&status,

    `tf_device.replicate`, and associated `tf.TPUReplicatedInput` and
    `tf.TPUReplicatedOutput` ops are replaced as the `tf_device.replicate` operands
    and results. Otherwise, the single operands and results of the associated
    `tf.TPUReplicatedInput` and `tf.TPUReplicatedOutput` ops are simply forwarded to
    the `tf_device.cluster`.

    For example, the following non replicated computation: