"⥩":                         "\u2969",
	"”":                           "\u201d",
	"”":                          "\u201d",
	"↳":                            "\u21b3",
	"ℜ":                            "\u211c",
	"ℛ":                         "\u211b",
	"ℜ":                        "\u211c",
	"ℝ":                           "\u211d",

    // Returns true iff `val` (a complex constant with float real and imaginary
    // parts) is zero.
    auto complexIsZero = [](const std::complex<APFloat> val) {
      // Note that when `val` is of complex type, it is zero iff both
      // its real and imaginary parts are zero.
      if (val.real().isZero() && val.imag().isZero())
        return true;
      else
        return false;

    Value constant_val = add_op.getRhs();
    if (!matchPattern(constant_val, m_Constant(&added_value))) {
      // The constant may be preceded by QDQs in models with QDQ format, so we
      // should set it to the real constant.
      auto dq = dyn_cast_or_null<DequantizeOp>(constant_val.getDefiningOp());
      if (!dq) return failure();
      auto q = dyn_cast_or_null<QuantizeOp>(dq.getInput().getDefiningOp());

		"rdldhar;":                         '\U00002969',
		"rdquo;":                           '\U0000201D',
		"rdquor;":                          '\U0000201D',
		"rdsh;":                            '\U000021B3',
		"real;":                            '\U0000211C',
		"realine;":                         '\U0000211B',
		"realpart;":                        '\U0000211C',
		"reals;":                           '\U0000211D',

 public:
  using OpConversionPattern::OpConversionPattern;

  // Helper params for representing the transpose params for the "canonicalized"
  // output to the real output.
  struct TransposeParams {
    std::vector<int64_t> permutation;
    // The following are the "canonicalized" output shape with offset dims.
    std::vector<int64_t> canonicalized_output_shape;

---
` + httpVirtualServiceTmpl,
		opts: echo.CallOptions{
			Count: 1,
			Port: echo.Port{
				Protocol: protocol.HTTP,
			},
			HTTP: echo.HTTP{
				// In real world, this may be set by a downstream LB that terminates the TLS
				Headers: headers.New().With(headers.XForwardedProto, "https").Build(),
			},
			Check: check.OK(),
		},
		setupOpts: fqdnHostHeader,

  // CHECK: "tfl.real"(%arg0)
  %0 = "tfl.real"(%arg0): (tensor<? x complex<f64>>) -> tensor<?xf64>
  func.return %0 : tensor<?xf64>
}

// -----

func.func @testRealWrongShape(%arg0: tensor<3 x complex<f64>>) -> tensor<4xf32> {
  // expected-error @+1 {{requires the same shape for all operands and results}}
  %0 = "tfl.real"(%arg0): (tensor<3 x complex<f64>>) -> tensor<4xf32>

func (b *Builder) Do(ctx context.Context, root *Action) {
	ctx, span := trace.StartSpan(ctx, "exec.Builder.Do ("+root.Mode+" "+root.Target+")")
	defer span.Done()

	if !b.IsCmdList {
		// If we're doing real work, take time at the end to trim the cache.
		c := cache.Default()
		defer func() {
			if err := c.Close(); err != nil {
				base.Fatalf("go: failed to trim cache: %v", err)
			}
		}()
	}

  prepare-kube-proxy-manifest-variables "${src_file}"

  cp "${src_file}" /etc/kubernetes/manifests
}

# Replaces the variables in the etcd manifest file with the real values, and then
# copy the file to the manifest dir
# $1: value for variable 'suffix'
# $2: value for variable 'port'
# $3: value for variable 'server_port'
# $4: value for variable 'cpulimit'

			}
			got := <-proxyCh
			c.Transport.(*Transport).CloseIdleConnections()
			ts.Close()
			proxy.Close()
			if siteMode == https1Mode {
				// First message should be a CONNECT, asking for a socket to the real server,
				if got.Method != "CONNECT" {
					t.Errorf("Wrong method for secure proxying: %q", got.Method)
				}
				gotHost := got.URL.Host
				pu, err := url.Parse(ts.URL)
				if err != nil {