ConvertTFDialectOpToNodeDef(
                          inst, name, /*ignore_unregistered_attrs=*/false));
  UseOriginalFunctionNames(*node_def);

  TF_ASSIGN_OR_RETURN(Node * node, graph_->AddNode(std::move(*node_def)));
  DCHECK(node != nullptr);
  nodes_[inst] = node;
  return absl::OkStatus();
}

bool IsEntryFunctionArg(BlockArgument arg) {

      std::move(embedded_protobufs.cpp_shims[0].expression);
  metadata_result->hlo_profile_printer_data_access_shim =
      std::move(embedded_protobufs.cpp_shims[1].expression);
  metadata_result->header_variable_decls.emplace_back(
      std::move(embedded_protobufs.cpp_shims[0].variable_decl));
  metadata_result->header_variable_decls.emplace_back(
      std::move(embedded_protobufs.cpp_shims[1].variable_decl));

          devices.device_names(), num_replicas, num_cores_per_replica,
          topology_attr.getValue(), status_or_device_coodinates.value());
  return success();
}

// Move a broadcast into the XLA cluster, converting it to an XlaAllReduce. This
// skips if the element type is not known to be valid for XlaAllReduce.
LogicalResult MoveBroadcastToCluster(OpBuilder& builder,

			// the AST is incomplete), or we have a dot-import (and all bets are off):
			// move any associated values, funcs, and methods back to the top-level so
			// that they are not lost.
			// 1) move values
			r.values = append(r.values, t.values...)
			// 2) move factory functions
			for name, f := range t.funcs {
				// in a correct AST, package-level function names

	abiMap abiDesc
}

// abiPartKind is the action an abiPart should take.
type abiPartKind int

const (
	abiPartBad   abiPartKind = iota
	abiPartStack             // Move a value from memory to the stack.
	abiPartReg               // Move a value from memory to a register.
)

// abiPart encodes a step in translating between calling ABIs.
type abiPart struct {
	kind           abiPartKind
	srcStackOffset uintptr

	if runtime.GOOS == "windows" {
		// Remove lingering ~ file from last attempt.
		if _, err2 := os.Stat(f + "~"); err2 == nil {
			os.Remove(f + "~")
		}
		// Try to move it out of the way. If the move fails,
		// which is likely, we'll try again the
		// next time we do an install of this binary.
		if err2 := os.Rename(f, f+"~"); err2 == nil {
			os.Remove(f + "~")
			return
		}
	}

    DeviceType compilation_device_type, xla::LocalClient* local_client) {
  return new XlaDeviceCompiler(
      std::make_unique<XlaDeviceExecutablePersistor>(
          std::move(persistor_config), compilation_device_type),
      std::make_unique<XlaDeviceCompilerClient>(local_client));
}

PjRtDeviceCompiler* CreatePjRtDeviceCompiler(DeviceType compilation_device_type,

	// so don't bother saving g.
	// When using cgo, we already saved g on TLS, also don't save
	// g here.
	// Also don't save g if we are already on the signal stack.
	// We won't get a nested signal.
	MOVBZ	runtime·iscgo(SB), R22
	CMP	R22, $0
	BNE	nosaveg
	MOVD	m_gsignal(R21), R22	// g.m.gsignal
	CMP	R22, $0
	BEQ	nosaveg

	CMP	g, R22
	BEQ	nosaveg
	MOVD	(g_stack+stack_lo)(R22), R22 // g.m.gsignal.stack.lo

        this.checker = checker;
        this.dependencyCoordinateResolverFactory = dependencyCoordinateResolverFactory;
        // Collect a map from component to coordinates. This might be better to move to the component or some publications model
        collectCoordinates(componentCoordinates);
    }

    public Provider<ModuleMetadataSpec> build() {

			// again. So we need to move pods to active queue on PV add for this
			// scenario.
			//
			// PvUpdate: Scheduler.bindVolumesWorker may fail to update assumed pod volume
			// bindings due to conflicts if PVs are updated by PV controller or other
			// parties, then scheduler will add pod back to unschedulable queue. We
			// need to move pods to active queue on PV update for this scenario.