}
			typeof[n] = t

		case *ast.Field:
			// Field is one instance of the type per name.
			all := ""
			t := typeof[n.Type]
			if !isType(t) {
				// Create a type, because it is typically *T or *p.T
				// and we might care about that type.
				t = mkType(gofmt(n.Type))
				typeof[n.Type] = t
			}
			t = getType(t)
			if len(n.Names) == 0 {
				all = t
			} else {

	fmt.Fprintln(w, "}")
}

// typeInterner maps Go type expressions to compiler code that
// constructs the denoted type. It recognizes and reuses common
// subtype expressions.
type typeInterner struct {
	typs []string
	hash map[string]int
}

func (i *typeInterner) intern(t ast.Expr) int {
	x := i.mktype(t)
	v, ok := i.hash[x]
	if !ok {
		v = len(i.typs)
		if i.hash == nil {

	// (*unsafe.Pointer)(x) where x is type *bad -> (*unsafe.Pointer)(unsafe.Pointer(x))
	// (*bad.type)(x) where x is type *unsafe.Pointer -> (*bad.type)(unsafe.Pointer(x))
	walk(f, func(n any) {
		if n == nil {
			return
		}
		// Find pattern like (*a.b)(x)
		c, ok := n.(*ast.CallExpr)
		if !ok {
			return
		}
		if len(c.Args) != 1 {
			return
		}
		p, ok := c.Fun.(*ast.ParenExpr)
		if !ok {

}


internal
fun genericTypeOf(type: KmType, argument: KmType): KmType {
    type.arguments += KmTypeProjection(KmVariance.INVARIANT, argument)
    return type
}


internal
fun genericTypeOf(type: KmType, arguments: Iterable<KmType>): KmType {
    arguments.forEach { genericTypeOf(type, it) }
    return type
}


internal
fun actionTypeOf(type: KmType): KmType =

	;;
aix_ppc)
	mkerrors="$mkerrors -maix32"
	mksyscall="go run mksyscall_aix_ppc.go -aix"
	mktypes="GOARCH=$GOARCH go tool cgo -godefs"
	;;
aix_ppc64)
	mkerrors="$mkerrors -maix64"
	mksyscall="go run mksyscall_aix_ppc64.go -aix"
	mktypes="GOARCH=$GOARCH go tool cgo -godefs"
	;;
darwin_amd64)
	mkerrors="$mkerrors -m64"
	mktypes="GOARCH=$GOARCH go tool cgo -godefs"
	mkasm="go run mkasm.go"
	;;
darwin_arm64)

    override fun getTypeConfiguredByLambda(type: KType): KType? = if (isConfigureLambdaType(type)) type.arguments[0].type else null
    override fun isConfigureLambdaForType(configuredType: KType, maybeLambdaType: KType): Boolean = isConfigureLambdaType(maybeLambdaType, configuredType)
    override fun produceValueCaptor(lambdaType: KType): ConfigureLambdaHandler.ValueCaptor {
        lateinit var value: Any

		{Type: Modified, Object: &myType{"foo", "goodbye world 3"}},
		{Type: Deleted, Object: &myType{"bar", "hello world 4"}},
	}

	// The broadcaster we're testing
	m := NewBroadcaster(0, WaitIfChannelFull)

	// Add a bunch of watchers
	const testWatchers = 2
	wg := sync.WaitGroup{}
	wg.Add(testWatchers)
	for i := 0; i < testWatchers; i++ {
		w, err := m.Watch()
		if err != nil {

import kotlin.reflect.KClass
import kotlin.reflect.KType

internal fun SmartPrinter.printTypeWithShortNames(type: KType, shouldRenderFqName: (KType) -> Boolean = { false }) {
    fun typeConversion(type: KType): String {
        val nullableSuffix = if (type.isMarkedNullable) "?" else ""
        val simpleName = if (shouldRenderFqName(type)) {
            type.qualifiedName
        } else {
            type.simpleName
        }

	mkerrors="$mkerrors -maix64"
	mksyscall="./mksyscall_libc.pl -aix"
	mktypes="GOARCH=$GOARCH go tool cgo -godefs"
	;;
darwin_amd64)
	mkerrors="$mkerrors -m64"
	mksyscall="./mksyscall.pl -darwin"
	mktypes="GOARCH=$GOARCH go tool cgo -godefs"
	mkasm="go run mkasm.go"
	;;
darwin_arm64)
	mkerrors="$mkerrors -m64"
	mksyscall="./mksyscall.pl -darwin"
	mktypes="GOARCH=$GOARCH go tool cgo -godefs"
	mkasm="go run mkasm.go"
	;;

package lib

type FMap[K comparable, V comparable] map[K]V

//go:noinline
func (m FMap[K, V]) Flip() FMap[V, K] {
	out := make(FMap[V, K])
	return out
}

type MyType uint8

const (
	FIRST MyType = 0
)

var typeStrs = FMap[MyType, string]{
	FIRST: "FIRST",
}

func (self MyType) String() string {
	return typeStrs[self]