func (check *Checker) validType0(pos token.Pos, typ Type, nest, path []*Named) bool {
	typ = Unalias(typ)

	if check.conf._Trace {
		if t, _ := typ.(*Named); t != nil && t.obj != nil /* obj should always exist but be conservative */ {
			pos = t.obj.pos
		}
		check.indent++
		check.trace(pos, "validType(%s) nest %v, path %v", typ, pathString(makeObjList(nest)), pathString(makeObjList(path)))
		defer func() {

		Body: &syntax.BlockStmt{
			List:   []syntax.Stmt{},
			Rbrace: end,
		},
	}
	r.rangefuncBodyClosures[bodyFunc] = true
	setPos(bodyFunc, start)

	for i := 0; i < ftyp.Params().Len(); i++ {
		typ := ftyp.Params().At(i).Type()
		var paramVar *types2.Var
		if i < len(lhs) && def {
			// Reuse range variable as parameter.
			x := lhs[i]
			paramVar = r.info.Defs[x.(*syntax.Name)].(*types2.Var)

	// set sets the type of n to typ.
	// If isDecl is true, n is being declared.
	set := func(n ast.Expr, typ string, isDecl bool) {
		if typeof[n] != "" || typ == "" {
			if typeof[n] != typ {
				assign[typ] = append(assign[typ], n)
			}
			return
		}
		typeof[n] = typ

		// If we obtained typ from the declaration of x
		// propagate the type to all the uses.

// must be stored in interfaces indirectly. See issue 42076.
func (pd *pollDesc) makeArg() (i any) {
	x := (*eface)(unsafe.Pointer(&i))
	x._type = pdType
	x.data = unsafe.Pointer(&pd.self)
	return
}

var (
	pdEface any    = (*pollDesc)(nil)
	pdType  *_type = efaceOf(&pdEface)._type

	gwrite(bytes(s))
}

func printslice(s []byte) {
	sp := (*slice)(unsafe.Pointer(&s))
	print("[", len(s), "/", cap(s), "]")
	printpointer(sp.array)
}

func printeface(e eface) {
	print("(", e._type, ",", e.data, ")")
}

func printiface(i iface) {
	print("(", i.tab, ",", i.data, ")")
}

// hexdumpWords prints a word-oriented hex dump of [p, end).
//

//go:linkname reflect_unsafe_New reflect.unsafe_New
func reflect_unsafe_New(typ *_type) unsafe.Pointer {
	return mallocgc(typ.Size_, typ, true)
}

//go:linkname reflectlite_unsafe_New internal/reflectlite.unsafe_New
func reflectlite_unsafe_New(typ *_type) unsafe.Pointer {
	return mallocgc(typ.Size_, typ, true)
}

// newarray allocates an array of n elements of type typ.
//
// newarray should be an internal detail,

 *
 * Please see the <a href="https://docs.gradle.org/current/userguide/declaring_dependencies.html#sec:what-are-dependency-configurations" target="_top">Managing Dependency Configurations</a> User Manual chapter for more information.
 */
@HasInternalProtocol
@ServiceScope(Scope.Project.class)

const raceenabled = true

// For all functions accepting callerpc and pc,
// callerpc is a return PC of the function that calls this function,
// pc is start PC of the function that calls this function.
func raceReadObjectPC(t *_type, addr unsafe.Pointer, callerpc, pc uintptr) {
	kind := t.Kind_ & abi.KindMask
	if kind == abi.Array || kind == abi.Struct {
		// for composite objects we have to read every address

						if t.IsEmptyInterface() {
							var typ ir.Node
							if s.srcName.Type().IsEmptyInterface() {
								// E->E, nothing to do, type is already correct.
								typ = srcItab
							} else {
								// I->E, load type out of itab
								typ = itabType(srcItab)
								typ.SetPos(ncase.Pos())
							}
							val = ir.NewBinaryExpr(ncase.Pos(), ir.OMAKEFACE, typ, srcData)
						} else {

				fmt.Fprint(h, meta.TransitionedObjName)
				fmt.Fprint(h, meta.TransitionVersionID)
			}

			// If metadata says encrypted, ask for it in quorum.
			if etyp, ok := crypto.IsEncrypted(meta.Metadata); ok {
				fmt.Fprint(h, etyp)
			}

			// If compressed, look for compressed FileInfo only
			if meta.IsCompressed() {
				fmt.Fprint(h, meta.Metadata[ReservedMetadataPrefix+"compression"])
			}