// There are no relocations against these dies, and their names
		// are not unique, so don't create a symbol.
		return die
	case dwarf.DW_ABRV_COMPUNIT, dwarf.DW_ABRV_COMPUNIT_TEXTLESS:
		// Avoid collisions with "real" symbol names.
		name = fmt.Sprintf(".pkg.%s.%d", name, len(d.linkctxt.compUnits))
		st = sym.SDWARFCUINFO
	case dwarf.DW_ABRV_VARIABLE:
		st = sym.SDWARFVAR
	default:

TEXT ·sigpanic0(SB),NOSPLIT,$0-0
	get_tls(R14)
	MOVQ	g(R14), R14
#ifndef GOOS_plan9
	XORPS	X15, X15
#endif
	JMP	·sigpanic<ABIInternal>(SB)

// gcWriteBarrier informs the GC about heap pointer writes.
//
// gcWriteBarrier returns space in a write barrier buffer which
// should be filled in by the caller.
// gcWriteBarrier does NOT follow the Go ABI. It accepts the

}

func SetsockoptTimeval(fd Handle, level, opt int, tv *Timeval) (err error) { return syscall.EWINDOWS }

// The Linger struct is wrong but we only noticed after Go 1.
// sysLinger is the real system call structure.

// BUG(brainman): The definition of Linger is not appropriate for direct use
// with Setsockopt and Getsockopt.
// Use SetsockoptLinger instead.

type Linger struct {
	Onoff  int32

			// the pod could reserve the claim. Instead of reserving here by
			// updating the ResourceClaim status, we assume that reserving
			// will work and only do it for real during binding. If it fails at
			// that time, some other pod was faster and we have to try again.
			continue
		}

		// Do we have the builtin controller?

}

TEST_F(CApiAttributesTest, StringTensor) {
  // Create the string-Tensor "attribute" value.
  const char test_string[] =
      "borkborkborkborkborkborkborkbork";  // >24bytes to force heap alloc
  TF_TString tstr[1];
  TF_TString_Init(&tstr[0]);
  TF_TString_Copy(&tstr[0], test_string, sizeof(test_string) - 1);

  auto deallocator = [](void* data, size_t len, void* arg) {};

}

func is8BitInt(t *types.Type) bool {
	return t.Size() == 1 && t.IsInteger()
}

func isPtr(t *types.Type) bool {
	return t.IsPtrShaped()
}

// mergeSym merges two symbolic offsets. There is no real merging of
// offsets, we just pick the non-nil one.
func mergeSym(x, y Sym) Sym {
	if x == nil {
		return y
	}
	if y == nil {
		return x
	}

 */
@media not screen and (min-width: 64rem) {
	/* Repeat the class twice to prioritize our mobile classes! */

	.content.content {
		/* Make the height equal to
           the real height of content */
		overflow: visible;
	}

	.main-content {
		/* Main content show first */
		flex-direction: column-reverse;
	}

	.docs-navigation.docs-navigation {

var global [1024]byte

func testPointers() []unsafe.Pointer {
	var pointers []unsafe.Pointer
	// globals
	for i := 0; i < 10; i++ {
		pointers = append(pointers, unsafe.Pointer(&global[1<<i-1]))
	}
	// heap
	pointers = append(pointers, unsafe.Pointer(new(byte)))
	// nil
	pointers = append(pointers, nil)
	return pointers
}

func TestSwapPointer(t *testing.T) {
	var x struct {
		before uintptr

			Deps:       []*work.Action{build},
			Objdir:     b.NewObjdir(),
			Package:    p,
			IgnoreFail: true, // run (prepare output) even if build failed
		}
		if writeCoverMetaAct != nil {
			// There is no real "run" for this package (since there
			// are no tests), but if coverage is turned on, we can
			// collect coverage data for the code in the package by
			// asking cmd/cover for a static meta-data file as part of

// of endpoints associated with mesh services, and calling the EDSUpdate on changes.
// A registry may group endpoints for a service in smaller subsets - for example by
// deployment, or to deal with very large number of endpoints for a service. We want
// to avoid passing around large objects - like full list of endpoints for a registry,
// or the full list of endpoints for a service across registries, since it limits