// within a package.
	ABIRefs obj.ABISet

	NumDefers  int32 // number of defer calls in the function
	NumReturns int32 // number of explicit returns in the function

	// NWBRCalls records the LSyms of functions called by this
	// function for go:nowritebarrierrec analysis. Only filled in
	// if nowritebarrierrecCheck != nil.
	NWBRCalls *[]SymAndPos

  return std::move(*loader).module();
}

// Renames functions in the stablehlo module to avoid naming conflicts with
// existing functions in the tf module.
// Sets _from_xla_call_module attribute for each stablehlo function.
// Returns the new stablehlo main function's name or error.
//
// If we directly insert stablehlo functions into tf module, MLIR will rename
// the stablehlo functions themselves in the tf module automatically to avoid

	functionNodes := make(map[string]graph.Nodes)
	for _, n := range g.Nodes {
		if !o.Symbol.MatchString(n.Info.Name) {
			continue
		}
		if functionNodes[n.Info.Name] == nil {
			functions = append(functions, n)
		}
		functionNodes[n.Info.Name] = append(functionNodes[n.Info.Name], n)
	}
	functions.Sort(graph.NameOrder)

	if len(functionNodes) == 0 {
		return fmt.Errorf("no matches found for regexp: %s", o.Symbol)

  return op;
}

// Stateful helper class to export a function into a Graph.
class Exporter {
 public:
  // Converts the given Module to a Graph. The given module should only contain
  // one entry function, which is identified by name "main". This entry function
  // is converted to the base of the graph graph. The rest of the functions are
  // converted to the library functions in that graph.

      VLOG(2) << "Using PJRT for compilation. Function name: "
              << function_.name();
      status = CompileToPjRtLoadedExecutable(
          *ctx, platform_info_, function_, args, compile_mode, has_ref_vars_,
          /*may_alias_resource_update=*/false, &kernel, &pjrt_client,
          &pjrt_executable);
    } else {
      status = CompileToLocalExecutable(
          ctx, function_, has_ref_vars_, platform_info_, args, compile_mode,

// Creates a pass that promotes resource reads/writes in `functions` to inputs
// and outputs of `functions`, assuming that resource operations have already
// been decomposed and function calls have already been inlined. If `functions`
// is empty, the pass is applied to the main function by default. The pass also
// annotates the input arguments for resources with the indices of their

			bu.SetFastSymbolization(true)
		}
	}

	functions := map[profile.Function]*profile.Function{}
	addFunction := func(f *profile.Function) *profile.Function {
		if fp := functions[*f]; fp != nil {
			return fp
		}
		functions[*f] = f
		f.ID = uint64(len(prof.Function)) + 1
		prof.Function = append(prof.Function, f)
		return f
	}

	missingBinaries := false

                                         while_region.getBody()));
    } else if (auto case_op = dyn_cast<CaseOp>(op)) {
      llvm::SmallVector<func::FuncOp, 4> functions;
      case_op.get_branch_functions(functions);
      AnalyzeFunctionalCaseOrIfOp(case_op, functions, backtrack_analysis);
    } else if (auto if_op = dyn_cast<IfOp>(op)) {
      AnalyzeFunctionalCaseOrIfOp(
          if_op, {if_op.then_function(), if_op.else_function()},

		}
		mappings[m.ID] = m
	}
	functions := make(map[uint64]*Function, len(p.Function))
	for _, f := range p.Function {
		if f == nil {
			return fmt.Errorf("profile has nil function")
		}
		if f.ID == 0 {
			return fmt.Errorf("found function with reserved ID=0")
		}
		if functions[f.ID] != nil {
			return fmt.Errorf("multiple functions with same id: %d", f.ID)
		}
		functions[f.ID] = f
	}

C.sizeof_struct_stat.

A C function may be declared in the Go file with a parameter type of
the special name _GoString_. This function may be called with an
ordinary Go string value. The string length, and a pointer to the
string contents, may be accessed by calling the C functions

	size_t _GoStringLen(_GoString_ s);
	const char *_GoStringPtr(_GoString_ s);

These functions are only available in the preamble, not in other C