}

	// typ may already have been instantiated with identical type arguments. In
	// that case, re-use the existing instance.
	for i, ctxt := range ctxts {
		if inst := ctxt.lookup(hashes[i], orig, targs); inst != nil {
			return updateContexts(inst)
		}
	}

	switch orig := orig.(type) {
	case *Named:
		res = check.newNamedInstance(pos, orig, targs, expanding) // substituted lazily

	case *Alias:

namespace tensorflow {

// Extracts the attributes of a MLIR operation and populates the converted
// attributes in a proto map<string, AttrValue>.
Status GetAttrValuesFromOperation(
    mlir::Operation* inst, llvm::StringRef name,
    const tensorflow::OpRegistrationData* op_reg_data,
    bool ignore_unregistered_attrs, AttrValueMap* attributes);

// Converts a MLIR operation to TensorFlow NodeDef with given node name. This

			Name:      cn,
			Namespace: ns,
		},
		Data: data,
	}
}

// CallType defines ingress gateway type
type CallType int

const (
	TLS CallType = iota
	Mtls
)

type ExpectedResponse struct {
	StatusCode                   int
	SkipErrorMessageVerification bool
	ErrorMessage                 string
}

type TLSContext struct {

			fset:     fset,
			packages: make(map[string]*types.Package),
			lookup:   lookup,
		}

	case "gccgo":
		var inst gccgoimporter.GccgoInstallation
		if err := inst.InitFromDriver("gccgo"); err != nil {
			return nil
		}
		return &gccgoimports{
			packages: make(map[string]*types.Package),
			importer: inst.GetImporter(nil, nil),
			lookup:   lookup,
		}

	case "source":
		if lookup != nil {

	}

	// typ may already have been instantiated with identical type arguments. In
	// that case, re-use the existing instance.
	for i, ctxt := range ctxts {
		if inst := ctxt.lookup(hashes[i], orig, targs); inst != nil {
			return updateContexts(inst)
		}
	}

	switch orig := orig.(type) {
	case *Named:
		res = check.newNamedInstance(pos, orig, targs, expanding) // substituted lazily

	case *Alias:

		if d := len(nest) - 1; d >= 0 {
			inst := nest[d] // the type instance
			// Find the corresponding type argument for the type parameter
			// and proceed with checking that type argument.
			for i, tparam := range inst.TypeParams().list() {
				// The type parameter and type argument lists should
				// match in length but be careful in case of errors.
				if t == tparam && i < inst.TypeArgs().Len() {

		if d := len(nest) - 1; d >= 0 {
			inst := nest[d] // the type instance
			// Find the corresponding type argument for the type parameter
			// and proceed with checking that type argument.
			for i, tparam := range inst.TypeParams().list() {
				// The type parameter and type argument lists should
				// match in length but be careful in case of errors.
				if t == tparam && i < inst.TypeArgs().Len() {

	return nil
}

// disassemble parses the output of the objdump command and returns
// the assembly instructions in a slice.
func disassemble(asm []byte) ([]plugin.Inst, error) {
	buf := bytes.NewBuffer(asm)
	function, file, line := "", "", 0
	var assembly []plugin.Inst
	for {
		input, err := buf.ReadString('\n')
		if err != nil {
			if err != io.EOF {
				return nil, err
			}
			if input == "" {
				break
			}

}

func (l *instanceLookup) lookup(inst *Named) *Named {
	for _, t := range l.buf {
		if t != nil && Identical(inst, t) {
			return t
		}
	}
	for _, t := range l.m[inst.Origin()] {
		if Identical(inst, t) {
			return t
		}
	}
	return nil
}

func (l *instanceLookup) add(inst *Named) {
	for i, t := range l.buf {
		if t == nil {
			l.buf[i] = inst
			return
		}
	}

}

func (l *instanceLookup) lookup(inst *Named) *Named {
	for _, t := range l.buf {
		if t != nil && Identical(inst, t) {
			return t
		}
	}
	for _, t := range l.m[inst.Origin()] {
		if Identical(inst, t) {
			return t
		}
	}
	return nil
}

func (l *instanceLookup) add(inst *Named) {
	for i, t := range l.buf {
		if t == nil {
			l.buf[i] = inst
			return
		}
	}