},
						map[interface{}]interface{}{
							"group":   "mygroup",
							"version": "v3",
							"kind":    "MyOtherKind",
						},
					},
				},
			},
		},
	}

	myTypes := []smdschema.TypeDef{
		{
			Name: "def0",
			Atom: smdschema.Atom{},
		},
		{
			Name: "def0.1",
			Atom: smdschema.Atom{},
		},
		{
			Name: "def0.2",
			Atom: smdschema.Atom{},

    def data_gen():
      for _ in range(255):
        yield {
            'x': ops.convert_to_tensor(
                np.random.uniform(size=(10)).astype('f4')
            ),
            'y': ops.convert_to_tensor(
                np.random.uniform(size=(10)).astype('f4')
            ),
        }

    root = ModelWithAdd()

    temp_path = self.create_tempdir().full_path
    saved_model_save.save(

	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 {

    /**
     * Returns the dependency type id.
     * The id uniquely identifies this <i>dependency type</i>.
     *
     * @return the id of this type, never {@code null}.
     */
    @Nonnull
    String id();

    /**
     * Returns the dependency type language.
     *
     * @return the language of this type, never {@code null}.
     */
    @Nonnull
    Language getLanguage();

    /**

package syntax

import "go/constant"

// A Type represents a type of Go.
// All types implement the Type interface.
// (This type originally lived in types2. We moved it here
// so we could depend on it from other packages without
// introducing an import cycle.)
type Type interface {
	// Underlying returns the underlying type of a type.
	// Underlying types are never Named, TypeParam, or Alias types.
	//

	}
	return toType(tt.InSlice()[i])
}

func (t rtype) Key() Type {
	tt := t.Type.MapType()
	if tt == nil {
		panic("reflect: Key of non-map type")
	}
	return toType(tt.Key)
}

func (t rtype) Len() int {
	tt := t.Type.ArrayType()
	if tt == nil {
		panic("reflect: Len of non-array type")
	}
	return int(tt.Len)
}

func (t rtype) NumField() int {
	tt := t.Type.StructType()

func TypeNode(t *types.Type) Node {
	if n := t.Obj(); n != nil {
		if n.Type() != t {
			base.Fatalf("type skew: %v has type %v, but expected %v", n, n.Type(), t)
		}
		return n.(*Name)
	}
	return newTypeNode(t)
}

// A DynamicType represents a type expression whose exact type must be
// computed dynamically.
type DynamicType struct {
	miniExpr

	paramDeclType *apiservercel.DeclType

	variables []v1.Variable
}

type typeOverwrite struct {
	object *apiservercel.DeclType
	params *apiservercel.DeclType
}

// TypeCheckingResult holds the issues found during type checking, any returned
// error, and the gvk that the type checking is performed against.
type TypeCheckingResult struct {
	// GVK is the associated GVK
	GVK schema.GroupVersionKind

        this.type = type;
    }

    public Type asType() {
        return type;
    }

    public TypeName asTypeName() {
        return TypeUtils.typeName(type);
    }

    public static boolean isAnyOf(Type type) {
        for (GradleLazyType gradleType : values()) {
            if (gradleType.type != null && gradleType.type.equals(type)) {
                return true;
            }
        }

			CheckSize(typ)
		}
		return typ
	}

	for _, s := range &basicTypes {
		Types[s.etype] = defBasic(s.etype, BuiltinPkg, s.name)
	}

	for _, s := range &typedefs {
		sameas := s.sameas32
		if PtrSize == 8 {
			sameas = s.sameas64
		}
		SimType[s.etype] = sameas

		Types[s.etype] = defBasic(s.etype, BuiltinPkg, s.name)
	}

	// We create separate byte and rune types for better error messages