networkingv1beta1 "istio.io/api/networking/v1beta1"
	security_beta "istio.io/api/security/v1beta1"
	telemetry "istio.io/api/telemetry/v1alpha1"
	type_beta "istio.io/api/type/v1beta1"
	"istio.io/istio/pilot/pkg/features"
	"istio.io/istio/pkg/config"
	"istio.io/istio/pkg/config/constants"
	"istio.io/istio/pkg/config/gateway"
	"istio.io/istio/pkg/config/host"
	"istio.io/istio/pkg/config/labels"
	"istio.io/istio/pkg/config/protocol"

//     GOOS environment variable.
//   - the target architecture, as spelled by runtime.GOARCH, set with the
//     GOARCH environment variable.
//   - any architecture features, in the form GOARCH.feature
//     (for example, "amd64.v2"), as detailed below.
//   - "unix", if GOOS is a Unix or Unix-like system.
//   - the compiler being used, either "gc" or "gccgo"

func (in *NodeRuntimeHandler) DeepCopyInto(out *NodeRuntimeHandler) {
	*out = *in
	if in.Features != nil {
		in, out := &in.Features, &out.Features
		*out = new(NodeRuntimeHandlerFeatures)
		(*in).DeepCopyInto(*out)
	}
	return
}

func (in *NodeRuntimeHandler) DeepCopyInto(out *NodeRuntimeHandler) {
	*out = *in
	if in.Features != nil {
		in, out := &in.Features, &out.Features
		*out = new(NodeRuntimeHandlerFeatures)
		(*in).DeepCopyInto(*out)
	}
	return
}

  // Lowers 2D upscaling logic to a single TFL::ResizeNearestNeighor op.
  //
  // To optimize JAX resize implementation, especially for 2D upscaling, this
  // pattern matching logic captures the following pattern to replace with the
  // single TFL::resize_nearest_neighbor op instance as a fast fused op
  // available in TFLite.
  //
  // - tfl.gather_nd -> tfl.transpose -> tfl.gather_nd -> tfl.transpose

	Subsystem MetricSubsystem `json:"Subsystem"`
	Name      MetricName      `json:"MetricName"`
	Help      string          `json:"Help"`
	Type      MetricTypeV2    `json:"Type"`
}

// MetricV2 captures the details for a metric
type MetricV2 struct {
	Description          MetricDescription `json:"Description"`
	StaticLabels         map[string]string `json:"StaticLabels"`

    outputs. Thus, inter iteration control dependencies are transformed to
    data dependencies. Since data dependencies can express which particular
    operations in the while loop body are dependent on which inputs, it captures
    inter iteration parallelism in while loop. Control dependencies on the other
    hand create a barrier at the end of while loop body thus blocking any
    parallelism across iterations.

      // o = (i-k+1) + (s-1)(i-1) + P
      // Where the first term is the kernel applications on the input,
      // the second term is the additional applications from the stride
      // and P is a term that captures the total padding. After expanding we get
      // o = si + k - s + 2 + P
      // Here JAX sets P to cancel k-s+2, leading to the expression below
      if (output_size != input_size * stride) {
        return false;

//  - Integer types live in the low portion of registers. Upper portions are junk.
//  - Boolean types use the low-order byte of a register. 0=false, 1=true.
//    Upper bytes are junk.
//  - Floating-point types live in the low natural slot of an sse2 register.
//    Unused portions are junk.
//  - We do not use AH,BH,CH,DH registers.
//  - When doing sub-register operations, we try to write the whole

	})
}

func virtualServiceCases(t TrafficContext) {
	// reduce the total # of subtests that don't give valuable coverage or just don't work
	// TODO include proxyless as different features become supported
	t.SetDefaultSourceMatchers(match.NotNaked, match.NotHeadless, match.NotProxylessGRPC)
	t.SetDefaultTargetMatchers(match.NotNaked, match.NotHeadless, match.NotProxylessGRPC)