o.initialGen = gen
	}

	var curCtx, newCtx schedCtx
	curCtx.M = m
	newCtx.M = m

	var ms *mState
	if m == NoThread {
		curCtx.P = NoProc
		curCtx.G = NoGoroutine
		newCtx = curCtx
	} else {
		// Pull out or create the mState for this event.
		var ok bool
		ms, ok = o.mStates[m]
		if !ok {
			ms = &mState{
				g: NoGoroutine,
				p: NoProc,
			}
			o.mStates[m] = ms
		}
		curCtx.P = ms.p

	} else { // GCCGO_ERROR "block starts here"
	L:
	}
}

func _() {
	if false { // GCCGO_ERROR "block starts here"
	L:
	} else {
		goto L // ERROR "goto L jumps into block starting at LINE-3|goto jumps into block"
	}
}

func _() {
	if true {
		goto L // ERROR "goto L jumps into block starting at LINE+1|goto jumps into block"
	} else { // GCCGO_ERROR "block starts here"
	L:
	}
}

			StabilityLevel: metrics.ALPHA,
		},
		[]string{"protocol", "transport", "stage"},
	)

	legacyregistry.MustRegister(starts)
	legacyregistry.MustRegister(latencies)
	legacyregistry.MustRegister(failures)
	return &DialMetrics{starts: starts, latencies: latencies, failures: failures, clock: clock.RealClock{}}
}

// Clock returns the clock.
func (m *DialMetrics) Clock() clock.Clock {

// Tests that xadduintptr correctly updates 64-bit values. The place where
// we actually do so is mstats.go, functions mSysStat{Inc,Dec}.
func TestXadduintptrOnUint64(t *testing.T) {
	if goarch.BigEndian {
		// On big endian architectures, we never use xadduintptr to update
		// 64-bit values and hence we skip the test.  (Note that functions
		// mSysStat{Inc,Dec} in mstats.go have explicit checks for
		// big-endianness.)

						d = 1
					}
					del := p.Text[0] == '~'
					x := &Emph{Marker: p.Text[:d], Inner: append([]Inline(nil), dst[start.i+1:]...)}
					start.Text = start.Text[:len(start.Text)-d]
					p.Text = p.Text[d:]
					if start.Text == "" {
						dst = dst[:start.i]
					} else {
						dst = dst[:start.i+1]
					}
					trimStack()
					if del {
						dst = append(dst, (*Del)(x))
					} else if d == 2 {

func main() {
	baseCtx := context.Background()

	// Create a task that starts and ends entirely outside of the trace.
	ctx0, t0 := trace.NewTask(baseCtx, "parent")

	// Create a task that starts before the trace and ends during the trace.
	ctx1, t1 := trace.NewTask(ctx0, "type1")

	// Start tracing.
	if err := trace.Start(os.Stdout); err != nil {
		log.Fatalf("failed to start tracing: %v", err)
	}
	t1.End()

}

void ClusterScopingPassImpl::AddScopeToAllTransitivePredecessors(Node* start) {
  const string unique_suffix = absl::StrCat("_", GetUniqueScopeId());

  std::vector<Node*> starts;
  starts.push_back(start);
  auto enter = [&](Node* n) { AddOrAppendXlaInternalScope(n, unique_suffix); };
  ReverseDFSFrom(*graph_, starts, enter, /*leave=*/nullptr,
                 /*stable_comparator=*/NodeComparatorName());
}

  ::flatbuffers::uoffset_t start_;
  void add_beta(float beta) {
    fbb_.AddElement<float>(SoftmaxOptions::VT_BETA, beta, 0.0f);
  }
  explicit SoftmaxOptionsBuilder(::flatbuffers::FlatBufferBuilder &_fbb)
        : fbb_(_fbb) {
    start_ = fbb_.StartTable();
  }
  ::flatbuffers::Offset<SoftmaxOptions> Finish() {
    const auto end = fbb_.EndTable(start_);

	size_t size;
	int err;

	SIGFILLSET(ign);
	pthread_sigmask(SIG_SETMASK, &ign, &oset);

	pthread_attr_init(&attr);
	pthread_attr_getstacksize(&attr, &size);
	// Leave stacklo=0 and set stackhi=size; mstart will do the rest.
	ts->g->stackhi = size;
	err = _cgo_try_pthread_create(&p, &attr, threadentry, ts);

	pthread_sigmask(SIG_SETMASK, &oset, nil);

	if (err != 0) {
		fatalf("pthread_create failed: %s", strerror(err));

func NewSkipNonAppliedManager(fieldManager Manager, objectCreater runtime.ObjectCreater) Manager {
	return NewProbabilisticSkipNonAppliedManager(fieldManager, objectCreater, 0.0)
}

// NewProbabilisticSkipNonAppliedManager creates a new wrapped FieldManager that starts tracking managers after the first apply,
// or starts tracking on create with p probability.