os.Remove(libgoh)
		}()
	}

	ccArgs := append(cc, "-o", exe, "main.c")
	if GOOS == "windows" {
		ccArgs = append(ccArgs, "main_windows.c", libgoa, "-lntdll", "-lws2_32", "-lwinmm")
	} else {
		ccArgs = append(ccArgs, "main_unix.c", libgoa)
	}
	if runtime.Compiler == "gccgo" {
		ccArgs = append(ccArgs, "-lgo")
	}
	t.Log(ccArgs)
	if out, err := exec.Command(ccArgs[0], ccArgs[1:]...).CombinedOutput(); err != nil {

	out := "_go_.o"
	ofile = objdir + out
	gcargs := []string{"-g"}
	gcargs = append(gcargs, b.gccArchArgs()...)
	gcargs = append(gcargs, "-fdebug-prefix-map="+b.WorkDir+"=/tmp/go-build")
	gcargs = append(gcargs, "-gno-record-gcc-switches")
	if pkgpath := gccgoPkgpath(p); pkgpath != "" {
		gcargs = append(gcargs, "-fgo-pkgpath="+pkgpath)
	}
	if p.Internal.LocalPrefix != "" {
		gcargs = append(gcargs, "-fgo-relative-import-path="+p.Internal.LocalPrefix)

	}
}

// RunCommand runs a command for the repo, with standard environment variables set
func RunCommand(args Args, c string, cargs ...string) error {
	cmd := VerboseCommand(c, cargs...)
	cmd.Env = StandardEnv(args)
	cmd.Stderr = os.Stderr
	cmd.Stdout = os.Stdout
	cmd.Dir = testenv.IstioSrc
	return cmd.Run()

// The installation is for testing with a kubebuilder fake cluster only, since no functional Deployment will be
// created.
func fakeInstallOperator(reconciler *helmreconciler.HelmReconciler, chartSource chartSourceType) error {
	ocArgs := &operatorCommonArgs{
		manifestsPath:     string(chartSource),
		istioNamespace:    constants.IstioSystemNamespace,
		watchedNamespaces: constants.IstioSystemNamespace,
		operatorNamespace: operatorDefaultNamespace,

	t := reflect.TypeOf(f.goFunc)
	cTypes := make([]string, t.NumIn())
	cArgs := make([]string, t.NumIn())
	for i := range cTypes {
		// We included stdint.h, so this works for all sized
		// integer types, and uint8Pair_t.
		cTypes[i] = t.In(i).Name() + "_t"
		if t.In(i).Name() == "uint8Pair" {
			cArgs[i] = fmt.Sprintf("(uint8Pair_t){%d,1}", i)
		} else {
			cArgs[i] = fmt.Sprintf("%d", i+1)
		}
	}
	fmt.Fprintf(w, `

	}

	// Emit the live pointer map data structures
	ls := curfn.LSym
	fninfo := ls.Func()
	fninfo.GCArgs, fninfo.GCLocals = lv.emit()

	p := pp.Prog(obj.AFUNCDATA)
	p.From.SetConst(rtabi.FUNCDATA_ArgsPointerMaps)
	p.To.Type = obj.TYPE_MEM
	p.To.Name = obj.NAME_EXTERN
	p.To.Sym = fninfo.GCArgs

	p = pp.Prog(obj.AFUNCDATA)
	p.From.SetConst(rtabi.FUNCDATA_LocalsPointerMaps)
	p.To.Type = obj.TYPE_MEM

// TODO: instead of duplicating them, have the compiler decide where symbols go.
func contentHashSection(s *LSym) byte {
	name := s.Name
	if s.IsPcdata() {
		return 'P'
	}
	if strings.HasPrefix(name, "gcargs.") ||
		strings.HasPrefix(name, "gclocals.") ||
		strings.HasPrefix(name, "gclocals·") ||
		strings.HasSuffix(name, ".opendefer") ||
		strings.HasSuffix(name, ".arginfo0") ||
		strings.HasSuffix(name, ".arginfo1") ||

	Pcln      Pcln
	InlMarks  []InlMark
	spills    []RegSpill

	dwarfInfoSym       *LSym
	dwarfLocSym        *LSym
	dwarfRangesSym     *LSym
	dwarfAbsFnSym      *LSym
	dwarfDebugLinesSym *LSym

	GCArgs             *LSym
	GCLocals           *LSym
	StackObjects       *LSym
	OpenCodedDeferInfo *LSym
	ArgInfo            *LSym // argument info for traceback
	ArgLiveInfo        *LSym // argument liveness info for traceback

				if !ctxt.DynlinkingGo() {
					ldr.SetCarrierSym(s, symgofuncrel)
				}
			} else {
				symGroupType[s] = sym.SGOFUNC
				ldr.SetCarrierSym(s, symgofunc)
			}

		case strings.HasPrefix(name, "gcargs."),
			strings.HasPrefix(name, "gclocals."),
			strings.HasPrefix(name, "gclocals·"),
			ldr.SymType(s) == sym.SGOFUNC && s != symgofunc, // inltree, see pcln.go
			strings.HasSuffix(name, ".opendefer"),