case *ast.ParenExpr:
		// Generic types must be instantiated before they can be used in any form.
		// Consequently, generic types cannot be parenthesized.
		return check.definedType(e.X, def)

	case *ast.ArrayType:
		if e.Len == nil {
			typ := new(Slice)
			setDefType(def, typ)
			typ.elem = check.varType(e.Elt)
			return typ
		}

		typ := new(Array)
		setDefType(def, typ)

		off += arch.PtrSize
	case abi.Func: // reflect.funcType
		off += arch.PtrSize // 4 bytes, pointer aligned
	case abi.Slice: // reflect.sliceType
		off += arch.PtrSize
	case abi.Array: // reflect.arrayType
		off += 3 * arch.PtrSize
	case abi.Chan: // reflect.chanType
		off += 2 * arch.PtrSize
	case abi.Map: // reflect.mapType
		off += 4*arch.PtrSize + 8
	case abi.Interface: // reflect.interfaceType

					switch st := s.Type.(type) {
					case *ast.StructType:
						for _, f := range st.Fields.List {
							for _, n := range f.Names {
								t.Field[n.Name] = gofmt(f.Type)
							}
						}
					case *ast.ArrayType, *ast.StarExpr, *ast.MapType:
						t.Def = gofmt(st)
					}
				}
			}
		}
	}

	typecheck1(cfg1, f, typeof, assign)
	return typeof, assign
}

			p.print(n.X, blank, n.Op, blank, n.Y)
		}

	case *KeyValueExpr:
		p.print(n.Key, _Colon, blank, n.Value)

	case *ListExpr:
		p.printExprList(n.ElemList)

	case *ArrayType:
		var len interface{} = _DotDotDot
		if n.Len != nil {
			len = n.Len
		}
		p.print(_Lbrack, len, _Rbrack, n.Elem)

	case *SliceType:
		p.print(_Lbrack, _Rbrack, n.Elem)

	case *DotsType:

	if !t.Pointers() || p == nil {
		// If the type has no pointers there is nothing to do.
		return
	}

	switch t.Kind_ & abi.KindMask {
	default:
		throw("can't happen")
	case abi.Array:
		at := (*arraytype)(unsafe.Pointer(t))
		if !indir {
			if at.Len != 1 {
				throw("can't happen")
			}
			cgoCheckArg(at.Elem, p, at.Elem.Kind_&abi.KindDirectIface == 0, top, msg)
			return
		}

		var typ *namedType // type to associate the function with
		numResultTypes := 0
		for _, res := range fun.Type.Results.List {
			factoryType := res.Type
			if t, ok := factoryType.(*ast.ArrayType); ok {
				// We consider functions that return slices or arrays of type
				// T (or pointers to T) as factory functions of T.
				factoryType = t.Elt
			}

	case *ast.CompositeLit:
		typ := pkg.oneLineNodeDepth(n.Type, depth)
		if len(n.Elts) == 0 {
			return fmt.Sprintf("%s{}", typ)
		}
		return fmt.Sprintf("%s{ %s }", typ, dotDotDot)

	case *ast.ArrayType:
		length := pkg.oneLineNodeDepth(n.Len, depth)
		element := pkg.oneLineNodeDepth(n.Elt, depth)
		return fmt.Sprintf("[%s]%s", length, element)

	case *ast.MapType:
		key := pkg.oneLineNodeDepth(n.Key, depth)

			{DW_AT_name, DW_FORM_string},
			{DW_AT_encoding, DW_FORM_data1},
			{DW_AT_byte_size, DW_FORM_data1},
			{DW_AT_go_kind, DW_FORM_data1},
			{DW_AT_go_runtime_type, DW_FORM_addr},
		},
	},

	/* ARRAYTYPE */
	// child is subrange with upper bound
	{
		DW_TAG_array_type,
		DW_CHILDREN_yes,
		[]dwAttrForm{
			{DW_AT_name, DW_FORM_string},
			{DW_AT_type, DW_FORM_ref_addr},

	defer f.Close()

	dwarf, err := f.DWARF()
	if err != nil {
		t.Fatalf("error reading DWARF: %v", err)
	}

	want := map[string]bool{
		"internal/abi.Type":          true,
		"internal/abi.ArrayType":     true,
		"internal/abi.ChanType":      true,
		"internal/abi.FuncType":      true,
		"internal/abi.MapType":       true,
		"internal/abi.PtrType":       true,
		"internal/abi.SliceType":     true,