Fix the invocation of type-safe constructors.

lib/src/wrappers.dart

 // Copyright (c) 2013, the Dart project authors.  Please see the AUTHORS file
 // for details. All rights reserved. Use of this source code is governed by a
 // BSD-style license that can be found in the LICENSE file.
 
 import "dart:collection";
 import "dart:math" as math;
 
 import "typed_wrappers.dart";
 import "unmodifiable_wrappers.dart";
 
@@ skipping 85 matching lines @@
   /// Creates a wrapper that asserts the types of values in [base].
   ///
   /// This soundly converts an [Iterable] without a generic type to an
   /// `Iterable<E>` by asserting that its elements are instances of `E` whenever
   /// they're accessed. If they're not, it throws a [CastError].
   ///
   /// This forwards all operations to [base], so any changes in [base] will be
   /// reflected in [this]. If [base] is already an `Iterable<E>`, it's returned
   /// unmodified.
   static Iterable/*<E>*/ typed/*<E>*/(Iterable base) =>
-      base is Iterable/*<E>*/ ? base : new TypedIterable/*<E>*/(base);
+      base is Iterable/*<E>*/ ? base : new TypeSafeIterable/*<E>*/(base);
 }
 
 
 /// A [List] that delegates all operations to a base list.
 ///
 /// This class can be used to hide non-`List` methods of a list object, or it
 /// can be extended to add extra functionality on top of an existing list
 /// object.
 class DelegatingList<E> extends DelegatingIterable<E> implements List<E> {
   const DelegatingList(List<E> base) : super(base);
 
   /// Creates a wrapper that asserts the types of values in [base].
   ///
   /// This soundly converts a [List] without a generic type to a `List<E>` by
   /// asserting that its elements are instances of `E` whenever they're
   /// accessed. If they're not, it throws a [CastError]. Note that even if an
   /// operation throws a [CastError], it may still mutate the underlying
   /// collection.
   ///
   /// This forwards all operations to [base], so any changes in [base] will be
   /// reflected in [this]. If [base] is already a `List<E>`, it's returned
   /// unmodified.
   static List/*<E>*/ typed/*<E>*/(List base) =>
-      base is List/*<E>*/ ? base : new TypedList/*<E>*/(base);
+      base is List/*<E>*/ ? base : new TypeSafeList/*<E>*/(base);
 
   List<E> get _listBase => _base;
 
   E operator [](int index) => _listBase[index];
 
   void operator []=(int index, E value) {
     _listBase[index] = value;
   }
 
   void add(E value) {
@@ skipping 89 matching lines @@
   /// This soundly converts a [Set] without a generic type to a `Set<E>` by
   /// asserting that its elements are instances of `E` whenever they're
   /// accessed. If they're not, it throws a [CastError]. Note that even if an
   /// operation throws a [CastError], it may still mutate the underlying
   /// collection.
   ///
   /// This forwards all operations to [base], so any changes in [base] will be
   /// reflected in [this]. If [base] is already a `Set<E>`, it's returned
   /// unmodified.
   static Set/*<E>*/ typed/*<E>*/(Set base) =>
-      base is Set/*<E>*/ ? base : new TypedSet/*<E>*/(base);
+      base is Set/*<E>*/ ? base : new TypeSafeSet/*<E>*/(base);
 
   Set<E> get _setBase => _base;
 
   bool add(E value) => _setBase.add(value);
 
   void addAll(Iterable<E> elements) {
     _setBase.addAll(elements);
   }
 
   void clear() {
@@ skipping 44 matching lines @@
   /// This soundly converts a [Queue] without a generic type to a `Queue<E>` by
   /// asserting that its elements are instances of `E` whenever they're
   /// accessed. If they're not, it throws a [CastError]. Note that even if an
   /// operation throws a [CastError], it may still mutate the underlying
   /// collection.
   ///
   /// This forwards all operations to [base], so any changes in [base] will be
   /// reflected in [this]. If [base] is already a `Queue<E>`, it's returned
   /// unmodified.
   static Queue/*<E>*/ typed/*<E>*/(Queue base) =>
-      base is Queue/*<E>*/ ? base : new TypedQueue/*<E>*/(base);
+      base is Queue/*<E>*/ ? base : new TypeSafeQueue/*<E>*/(base);
 
   Queue<E> get _baseQueue => _base;
 
   void add(E value) {
     _baseQueue.add(value);
   }
 
   void addAll(Iterable<E> iterable) {
     _baseQueue.addAll(iterable);
   }
@@ skipping 36 matching lines @@
   /// This soundly converts a [Map] without generic types to a `Map<K, V>` by
   /// asserting that its keys are instances of `E` and its values are instances
   /// of `V` whenever they're accessed. If they're not, it throws a [CastError].
   /// Note that even if an operation throws a [CastError], it may still mutate
   /// the underlying collection.
   ///
   /// This forwards all operations to [base], so any changes in [base] will be
   /// reflected in [this]. If [base] is already a `Map<K, V>`, it's returned
   /// unmodified.
   static Map/*<K, V>*/ typed/*<K, V>*/(Map base) =>
-      base is Map<K, V> ? base : new TypedMap<K, V>(base);
+      base is Map<K, V> ? base : new TypeSafeMap<K, V>(base);
 
   V operator [](Object key) => _base[key];
 
   void operator []=(K key, V value) {
     _base[key] = value;
   }
 
   void addAll(Map<K, V> other) {
     _base.addAll(other);
   }
@@ skipping 224 matching lines @@
 
   /// Returns a new set which contains all the elements of [this] and [other].
   ///
   /// That is, the returned set contains all the elements of this [Set] and all
   /// the elements of [other].
   ///
   /// Note that the returned set will use the default equality operation, which
   /// may be different than the equality operation [this] uses.
   Set<V> union(Set<V> other) => toSet()..addAll(other);
 }