// canWriteContinue is an atomic boolean that says whether or
	// not a 100 Continue header can be written to the
	// connection.
	// writeContinueMu must be held while writing the header.
	// These two fields together synchronize the body reader (the
	// expectContinueReader, which wants to write 100 Continue)
	// against the main writer.
	writeContinueMu  sync.Mutex
	canWriteContinue atomic.Bool

           RemoveReshapeBeforeFullyConnected, ConvertTFLBroadcastToMulOp>(ctx);
  (void)applyPatternsAndFoldGreedily(func, std::move(phase_0_patterns));

  // Potentially the binary ops might be fused together, like hard_swish, thus
  // we explore these potentially first and then fuse the binary ops with the
  // following ops in a second pattern match.
  TFL::populateWithGenerated(patterns);
  patterns

	HistogramBucketLabel string            `json:"HistogramBucketLabel"`
	Histogram            map[string]uint64 `json:"Histogram"`
}

// MetricsGroupV2 are a group of metrics that are initialized together.
type MetricsGroupV2 struct {
	metricsCache     *cachevalue.Cache[[]MetricV2] `msg:"-"`
	cacheInterval    time.Duration
	metricsGroupOpts MetricsGroupOpts
}

	// object file for the package, and then the Go linker passes them
	// along to the host linker. At this point in the code, cgoLDFLAGS
	// consists of the original $CGO_LDFLAGS (unchecked) and all the
	// flags put together from source code (checked).
	cgoenv := b.cCompilerEnv()
	var ldflagsOption []string
	if len(cgoLDFLAGS) > 0 {
		flags := make([]string, len(cgoLDFLAGS))
		for i, f := range cgoLDFLAGS {

// MOVDnop doesn't emit instruction, only for ensuring the type.
(MOVDreg x) && x.Uses == 1 => (MOVDnop x)

// TODO: we should be able to get rid of MOVDnop all together.
// But for now, this is enough to get rid of lots of them.
(MOVDnop (MOVDconst [c])) => (MOVDconst [c])

// fold constant into arithmetic ops
(ADD  x (MOVDconst <t> [c])) && !t.IsPtr() => (ADDconst [c] x)

		// dependency, and at the moment we don't try to instrument it
		// for coverage. There isn't any technical reason why
		// *_test.go files couldn't be instrumented, but it probably
		// doesn't make much sense to lump together coverage metrics
		// (ex: percent stmts covered) of *_test.go files with
		// non-test Go code.
		if len(p.GoFiles)+len(p.CgoFiles) == 0 {
			continue
		}

      TFL_TCresVTEtIsSameAsOp<0, 0>>]> {

  let summary = "UnsortedSegmentSum operator";

  let description = [{
    From a tensor segmentation, computes the `output` resulting from
    summing together elements mapped to the same segment_id. I.e. `output[i]` is
    equal to the tensor sum of all elements from the input tensor mapped to
    segment_id `i`. If no tensors are mapped to a particular included

                                                       result.attributes);
  }
  if (node.IsNextIteration()) {
    // NextIteration is a bit special, we create a pair of operations that are
    // linked together through a token returned by the source.
    // We make use of a separate builder to insert the source at the top of
    // the block.
    mlir::OpBuilder builder_at_begin(builder_.getBlock(),

		<-conn.closec
	}
}

// Tests that we can use CloseNotifier in one request, and later call Hijack
// on a second request on the same connection.
//
// It also tests that the connReader stitches together its background
// 1-byte read for CloseNotifier when CloseNotifier doesn't fire with
// the rest of the second HTTP later.
//
// Issue 9763.
// HTTP/1-only test. (http2 doesn't have Hijack)

	if got, want := iterateToString(iter), `[1: one, 2: two, 3: three]`; got != want {
		t.Errorf("iterator returned %s (after sorting), want %s", got, want)
	}

	// Check that Reset, Next, and SetKey/SetValue play nicely together.
	m3 := map[uint64]uint64{
		1 << 0: 1 << 1,
		1 << 1: 1 << 2,
		1 << 2: 1 << 3,
	}
	kv := New(TypeOf(uint64(0))).Elem()
	for i := 0; i < 5; i++ {
		var seenk, seenv uint64