}

// decodeMethodSig decodes an array of method signature information.
// Each element of the array is size bytes. The first 4 bytes is a
// nameOff for the method name, and the next 4 bytes is a typeOff for
// the function type.
//
// Conveniently this is the layout of both runtime.method and runtime.imethod.

		if ldr.SymType(ptab) != sym.SRODATA {
			panic(fmt.Sprintf("go:plugin.tabs is %v, not SRODATA", ldr.SymType(ptab)))
		}
		nentries := uint64(len(ldr.Data(ptab)) / 8) // sizeof(nameOff) + sizeof(typeOff)
		slice(ptab, nentries)
	} else {
		nilSlice()
	}

	if ctxt.BuildMode == BuildModePlugin {
		addgostring(ctxt, ldr, moduledata, "go:link.thispluginpath", objabi.PathToPrefix(*flagPluginPath))

            @Override
            public TypeOf<?> apply(ModelType<?> it) {
                return typeOf(it);
            }
        });
    }

    private static <U> TypeOf<U> typeOf(ModelType<U> componentType) {
        return new TypeOf<U>(componentType) {
        };
    }

    private TypeOf<?> nullableTypeOf(Class<?> type) {
        return type != null
            ? typeOf(type)

)

// TypeRef is the implementation of TypeRef for an unstructured object.
// This is especially usefully when the schema is not known or available.
type TypeRef struct {
	celObjectType *types.Type
	celTypeType   *types.Type
}

func (r *TypeRef) HasTrait(trait int) bool {
	return common.ObjectTraits|trait != 0
}

// TypeName returns the name of this TypeRef.
func (r *TypeRef) TypeName() string {

// Copyright 2018 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.

package inspector

// This file defines func typeOf(ast.Node) uint64.
//
// The initial map-based implementation was too slow;
// see https://go-review.googlesource.com/c/tools/+/135655/1/go/ast/inspector/inspector.go#196

import (
	"go/ast"
	"math"
)

const (

// construction syntax.
type ObjectVal struct {
	typeRef TypeRef
	fields  map[string]ref.Val
}

// NewObjectVal creates an ObjectVal by its TypeRef and its fields.
func NewObjectVal(typeRef TypeRef, fields map[string]ref.Val) *ObjectVal {
	return &ObjectVal{
		typeRef: typeRef,
		fields:  fields,
	}
}

var _ ref.Val = (*ObjectVal)(nil)

			panic("reflect: " + op + " of method on nil interface value")
		}
		rcvrtype = iface.itab.Type
		fn = unsafe.Pointer(&unsafe.Slice(&iface.itab.Fun[0], i+1)[i])
		t = (*funcType)(unsafe.Pointer(tt.typeOff(m.Typ)))
	} else {
		rcvrtype = v.typ()
		ms := v.typ().ExportedMethods()
		if uint(i) >= uint(len(ms)) {
			panic("reflect: internal error: invalid method index")
		}
		m := ms[i]

	gvkIndex := indexModels(&parser, myDefs)

	require.Len(t, gvkIndex, 5)

	resultNames := map[schema.GroupVersionKind]string{}
	for k, v := range gvkIndex {
		require.NotNil(t, v.TypeRef.NamedType)
		resultNames[k] = *v.TypeRef.NamedType
	}

	require.Equal(t, resultNames, map[schema.GroupVersionKind]string{
		{
			Group:   "mygroup",
			Version: "v1",
			Kind:    "MyKind",
		}: "def1",
		{

			}
			t.ParamType = append(t.ParamType, tkid)
		}

	case TagTypedef:
		// Typedef (DWARF v2 §5.3)
		// Attributes:
		//	AttrName: name [required]
		//	AttrType: type definition [required]
		t := new(TypedefType)
		typ = t
		typeCache[off] = t
		t.Name, _ = e.Val(AttrName).(string)
		t.Type = typeOf(e)

	case TagUnspecifiedType:
		// Unspecified type (DWARF v3 §5.2)
		// Attributes:

		In: `package main

// typedef const void *CFTypeRef;
import "C"

var x C.CFTypeRef = nil

func f() {
	x = nil
}
`,
		Out: `package main

// typedef const void *CFTypeRef;
import "C"

var x C.CFTypeRef = 0

func f() {
	x = 0
}
`,
	},
	{
		Name: "cftype.EqualArgument",
		In: `package main

// typedef const void *CFTypeRef;
import "C"