Fresh drop of analyzer-experimental.

pkg/analyzer-experimental/lib/src/generated/element.dart

 // This code was auto-generated, is not intended to be edited, and is subject to
 // significant change. Please see the README file for more information.
 
 library engine.element;
 
 import 'dart:collection';
 import 'java_core.dart';
 import 'java_engine.dart';
 import 'source.dart';
 import 'scanner.dart' show Keyword;
 import 'ast.dart';
-import 'package:analyzer-experimental/src/generated/utilities_dart.dart';
+import 'engine.dart' show AnalysisContext;
+import 'utilities_dart.dart';
 
 /**
  * The interface {@code Annotation} defines the behavior of objects representing a single annotation
  * associated with an element.
  */
 abstract class Annotation {
   /**
    * Return the element representing the field, variable, or const constructor being used as an
    * annotation.
    * @return the field, variable, or constructor being used as an annotation
    */
   Element get element;
 }
 /**
  * The interface {@code ClassElement} defines the behavior of elements that represent a class.
  */
 abstract class ClassElement implements Element {
   /**
-   * Return an array containing all of the accessors (getters and setters) contained in this class.
-   * @return the accessors contained in this class
+   * Return an array containing all of the accessors (getters and setters) declared in this class.
+   * @return the accessors declared in this class
    */
   List<PropertyAccessorElement> get accessors;
   /**
-   * Return an array containing all of the constructors contained in this class.
-   * @return the constructors contained in this class
+   * Return an array containing all the supertypes defined for this class and its supertypes.
+   * @return all the supertypes of this class, including mixins
+   */
+  List<InterfaceType> get allSupertypes;
+  /**
+   * Return an array containing all of the constructors declared in this class.
+   * @return the constructors declared in this class
    */
   List<ConstructorElement> get constructors;
   /**
-   * Return an array containing all of the fields contained in this class.
-   * @return the fields contained in this class
+   * Return an array containing all of the fields declared in this class.
+   * @return the fields declared in this class
    */
   List<FieldElement> get fields;
   /**
    * Return an array containing all of the interfaces that are implemented by this class.
    * @return the interfaces that are implemented by this class
    */
   List<InterfaceType> get interfaces;
   /**
-   * Return an array containing all of the methods contained in this class.
-   * @return the methods contained in this class
+   * Return an array containing all of the methods declared in this class.
+   * @return the methods declared in this class
    */
   List<MethodElement> get methods;
   /**
    * Return an array containing all of the mixins that are applied to the class being extended in
    * order to derive the superclass of this class.
    * @return the mixins that are applied to derive the superclass of this class
    */
   List<InterfaceType> get mixins;
   /**
+   * Return the named constructor declared in this class with the given name, or {@code null} if
+   * this class does not declare a named constructor with the given name.
+   * @param name the name of the constructor to be returned
+   * @return the element representing the specified constructor
+   */
+  ConstructorElement getNamedConstructor(String name);
+  /**
    * Return the superclass of this class, or {@code null} if the class represents the class
    * 'Object'. All other classes will have a non-{@code null} superclass. If the superclass was not
    * explicitly declared then the implicit superclass 'Object' will be returned.
    * @return the superclass of this class
    */
   InterfaceType get supertype;
   /**
    * Return the type defined by the class.
    * @return the type defined by the class
    */
   InterfaceType get type;
   /**
-   * Return an array containing all of the type variables defined for this class.
-   * @return the type variables defined for this class
+   * Return an array containing all of the type variables declared for this class.
+   * @return the type variables declared for this class
    */
   List<TypeVariableElement> get typeVariables;
   /**
+   * Return the unnamed constructor declared in this class, or {@code null} if this class does not
+   * declare an unnamed constructor but does declare named constructors. The returned constructor
+   * will be synthetic if this class does not declare any constructors, in which case it will
+   * represent the default constructor for the class.
+   * @return the unnamed constructor defined in this class
+   */
+  ConstructorElement get unnamedConstructor;
+  /**
    * Return {@code true} if this class is abstract. A class is abstract if it has an explicit{@code abstract} modifier. Note, that this definition of <i>abstract</i> is different from
    * <i>has unimplemented members</i>.
    * @return {@code true} if this class is abstract
    */
   bool isAbstract();
+  /**
+   * Return the element representing the getter that results from looking up the given getter in
+   * this class with respect to the given library, or {@code null} if the look up fails. The
+   * behavior of this method is defined by the Dart Language Specification in section 12.15.1:
+   * <blockquote> The result of looking up getter (respectively setter) <i>m</i> in class <i>C</i>
+   * with respect to library <i>L</i> is:
+   * <ul>
+   * <li>If <i>C</i> declares an instance getter (respectively setter) named <i>m</i> that is
+   * accessible to <i>L</i>, then that getter (respectively setter) is the result of the lookup.
+   * Otherwise, if <i>C</i> has a superclass <i>S</i>, then the result of the lookup is the result
+   * of looking up getter (respectively setter) <i>m</i> in <i>S</i> with respect to <i>L</i>.
+   * Otherwise, we say that the lookup has failed.</li>
+   * </ul>
+   * </blockquote>
+   * @param getterName the name of the getter being looked up
+   * @param library the library with respect to which the lookup is being performed
+   * @return the result of looking up the given getter in this class with respect to the given
+   * library
+   */
+  PropertyAccessorElement lookUpGetter(String getterName, LibraryElement library);
+  /**
+   * Return the element representing the method that results from looking up the given method in
+   * this class with respect to the given library, or {@code null} if the look up fails. The
+   * behavior of this method is defined by the Dart Language Specification in section 12.15.1:
+   * <blockquote> The result of looking up method <i>m</i> in class <i>C</i> with respect to library
+   * <i>L</i> is:
+   * <ul>
+   * <li>If <i>C</i> declares an instance method named <i>m</i> that is accessible to <i>L</i>, then
+   * that method is the result of the lookup. Otherwise, if <i>C</i> has a superclass <i>S</i>, then
+   * the result of the lookup is the result of looking up method <i>m</i> in <i>S</i> with respect
+   * to <i>L</i>. Otherwise, we say that the lookup has failed.</li>
+   * </ul>
+   * </blockquote>
+   * @param methodName the name of the method being looked up
+   * @param library the library with respect to which the lookup is being performed
+   * @return the result of looking up the given method in this class with respect to the given
+   * library
+   */
+  MethodElement lookUpMethod(String methodName, LibraryElement library);
+  /**
+   * Return the element representing the setter that results from looking up the given setter in
+   * this class with respect to the given library, or {@code null} if the look up fails. The
+   * behavior of this method is defined by the Dart Language Specification in section 12.16:
+   * <blockquote> The result of looking up getter (respectively setter) <i>m</i> in class <i>C</i>
+   * with respect to library <i>L</i> is:
+   * <ul>
+   * <li>If <i>C</i> declares an instance getter (respectively setter) named <i>m</i> that is
+   * accessible to <i>L</i>, then that getter (respectively setter) is the result of the lookup.
+   * Otherwise, if <i>C</i> has a superclass <i>S</i>, then the result of the lookup is the result
+   * of looking up getter (respectively setter) <i>m</i> in <i>S</i> with respect to <i>L</i>.
+   * Otherwise, we say that the lookup has failed.</li>
+   * </ul>
+   * </blockquote>
+   * @param setterName the name of the setter being looked up
+   * @param library the library with respect to which the lookup is being performed
+   * @return the result of looking up the given setter in this class with respect to the given
+   * library
+   */
+  PropertyAccessorElement lookUpSetter(String setterName, LibraryElement library);
 }
 /**
  * The interface {@code CompilationUnitElement} defines the behavior of elements representing a
  * compilation unit.
  */
 abstract class CompilationUnitElement implements Element {
   /**
    * Return an array containing all of the top-level accessors (getters and setters) contained in
    * this compilation unit.
    * @return the top-level accessors contained in this compilation unit
    */
   List<PropertyAccessorElement> get accessors;
   /**
    * Return the library in which this compilation unit is defined.
    * @return the library in which this compilation unit is defined
    */
   LibraryElement get enclosingElement;
   /**
-   * Return an array containing all of the fields contained in this compilation unit.
-   * @return the fields contained in this compilation unit
-   */
-  List<FieldElement> get fields;
-  /**
    * Return an array containing all of the top-level functions contained in this compilation unit.
    * @return the top-level functions contained in this compilation unit
    */
   List<FunctionElement> get functions;
   /**
-   * Return the source that corresponds to this compilation unit.
-   * @return the source that corresponds to this compilation unit
-   */
-  Source get source;
-  /**
    * Return an array containing all of the type aliases contained in this compilation unit.
    * @return the type aliases contained in this compilation unit
    */
   List<TypeAliasElement> get typeAliases;
   /**
    * Return an array containing all of the classes contained in this compilation unit.
    * @return the classes contained in this compilation unit
    */
   List<ClassElement> get types;
+  /**
+   * Return an array containing all of the variables contained in this compilation unit.
+   * @return the variables contained in this compilation unit
+   */
+  List<VariableElement> get variables;
 }
 /**
  * The interface {@code ConstructorElement} defines the behavior of elements representing a
  * constructor or a factory method defined within a type.
  */
 abstract class ConstructorElement implements ExecutableElement {
   /**
    * Return the type in which this constructor is defined.
    * @return the type in which this constructor is defined
    */
@@ skipping 75 matching lines @@
    */
   String get name;
   /**
    * Return the offset of the name of this element in the file that contains the declaration of this
    * element, or {@code -1} if this element is synthetic, does not have a name, or otherwise does
    * not have an offset.
    * @return the offset of the name of this element
    */
   int get nameOffset;
   /**
+   * Return the source that contains this element, or {@code null} if this element is not contained
+   * in a source.
+   * @return the source that contains this element
+   */
+  Source get source;
+  /**
+   * Return {@code true} if this element, assuming that it is within scope, is accessible to code in
+   * the given library. This is defined by the Dart Language Specification in section 3.2:
+   * <blockquote> A declaration <i>m</i> is accessible to library <i>L</i> if <i>m</i> is declared
+   * in <i>L</i> or if <i>m</i> is public. </blockquote>
+   * @param library the library in which a possible reference to this element would occur
+   * @return {@code true} if this element is accessible to code in the given library
+   */
+  bool isAccessibleIn(LibraryElement library);
+  /**
    * Return {@code true} if this element is synthetic. A synthetic element is an element that is not
    * represented in the source code explicitly, but is implied by the source code, such as the
    * default constructor for a class that does not explicitly define any constructors.
    * @return {@code true} if this element is synthetic
    */
   bool isSynthetic();
 }
 /**
  * The enumeration {@code ElementKind} defines the various kinds of elements in the element model.
  */
@@ skipping 124 matching lines @@
   /**
    * Return {@code true} if this field is a static field.
    * @return {@code true} if this field is a static field
    */
   bool isStatic();
 }
 /**
  * The interface {@code FunctionElement} defines the behavior of elements representing a function.
  */
 abstract class FunctionElement implements ExecutableElement {
+  /**
+   * Return a source range that covers the approximate portion of the source in which the name of
+   * this function is visible, or {@code null} if there is no single range of characters within
+   * which the variable's name is visible.
+   * <ul>
+   * <li>For a local function, this includes everything from the beginning of the function's body to
+   * the end of the block that encloses the function declaration.</li>
+   * <li>For top-level functions, {@code null} will be returned because they are potentially visible
+   * in multiple sources.</li>
+   * </ul>
+   * @return the range of characters in which the name of this function is visible
+   */
+  SourceRange get visibleRange;
 }
 /**
  * The interface {@code HideCombinator} defines the behavior of combinators that cause some of the
  * names in a namespace to be hidden when being imported.
  */
 abstract class HideCombinator implements NamespaceCombinator {
   /**
    * Return an array containing the names that are not to be made visible in the importing library
    * even if they are defined in the imported library.
    * @return the names from the imported library that are hidden from the importing library
    */
   List<String> get hiddenNames;
 }
 /**
  * The interface {@code HtmlElement} defines the behavior of elements representing an HTML file.
  */
 abstract class HtmlElement implements Element {
   /**
    * Return an array containing all of the libraries contained in or referenced from script tags in
    * the HTML file. This includes libraries that are defined by the content of a script file as well
    * as libraries that are referenced in the {@core src} attribute of a script tag.
    * @return the libraries referenced from script tags in the HTML file
    */
   List<LibraryElement> get libraries;
-  /**
-   * Return the source that corresponds to this HTML file.
-   * @return the source that corresponds to this HTML file
-   */
-  Source get source;
 }
 /**
  * The interface {@code ImportElement} defines the behavior of objects representing information
  * about a single import directive within a library.
  */
 abstract class ImportElement implements Element {
   /**
    * An empty array of import elements.
    */
   static List<ImportElement> EMPTY_ARRAY = new List<ImportElement>.fixedLength(0);
@@ skipping 35 matching lines @@
    * @return the compilation unit that defines this library
    */
   CompilationUnitElement get definingCompilationUnit;
   /**
    * Return the entry point for this library, or {@code null} if this library does not have an entry
    * point. The entry point is defined to be a zero argument top-level function whose name is{@code main}.
    * @return the entry point for this library
    */
   FunctionElement get entryPoint;
   /**
+   * Return an array containing all of the libraries that are exported from this library.
+   * @return an array containing all of the libraries that are exported from this library
+   */
+  List<LibraryElement> get exportedLibraries;
+  /**
    * Return an array containing all of the exports defined in this library.
    * @return the exports defined in this library
    */
   List<ExportElement> get exports;
   /**
    * Return an array containing all of the libraries that are imported into this library. This
    * includes all of the libraries that are imported using a prefix (also available through the
    * prefixes returned by {@link #getPrefixes()}) and those that are imported without a prefix.
    * @return an array containing all of the libraries that are imported into this library
    */
   List<LibraryElement> get importedLibraries;
   /**
    * Return an array containing all of the imports defined in this library.
    * @return the imports defined in this library
    */
   List<ImportElement> get imports;
   /**
    * Return an array containing all of the compilation units that are included in this library using
    * a {@code part} directive. This does not include the defining compilation unit that contains the{@code part} directives.
    * @return the compilation units that are included in this library
    */
   List<CompilationUnitElement> get parts;
   /**
    * Return an array containing elements for each of the prefixes used to {@code import} libraries
    * into this library. Each prefix can be used in more than one {@code import} directive.
    * @return the prefixes used to {@code import} libraries into this library
    */
   List<PrefixElement> get prefixes;
+  /**
+   * Answer {@code true} if this library is an application that can be run in the browser.
+   * @return {@code true} if this library is an application that can be run in the browser
+   */
+  bool isBrowserApplication();
 }
 /**
  * The interface {@code MethodElement} defines the behavior of elements that represent a method
  * defined within a type.
  */
 abstract class MethodElement implements ExecutableElement {
   /**
    * Return the type in which this method is defined.
    * @return the type in which this method is defined
    */
@@ skipping 39 matching lines @@
 /**
  * The interface {@code ParameterElement} defines the behavior of elements representing a parameter
  * defined within an executable element.
  */
 abstract class ParameterElement implements VariableElement {
   /**
    * Return the kind of this parameter.
    * @return the kind of this parameter
    */
   ParameterKind get parameterKind;
+  /**
+   * Return {@code true} if this parameter is an initializing formal parameter.
+   * @return {@code true} if this parameter is an initializing formal parameter
+   */
+  bool isInitializingFormal();
 }
 /**
  * The interface {@code PrefixElement} defines the behavior common to elements that represent a
  * prefix used to import one or more libraries into another library.
  */
 abstract class PrefixElement implements Element {
   /**
    * Return the library into which other libraries are imported using this prefix.
    * @return the library into which other libraries are imported using this prefix
    */
@@ skipping 111 matching lines @@
    * @return a synthetic function representing this variable's initializer
    */
   FunctionElement get initializer;
   /**
    * Return the declared type of this variable, or {@code null} if the variable did not have a
    * declared type (such as if it was declared using the keyword 'var').
    * @return the declared type of this variable
    */
   Type2 get type;
   /**
+   * Return a source range that covers the approximate portion of the source in which the name of
+   * this variable is visible, or {@code null} if there is no single range of characters within
+   * which the variable's name is visible.
+   * <ul>
+   * <li>For a local variable, this includes everything from the end of the variable's initializer
+   * to the end of the block that encloses the variable declaration.</li>
+   * <li>For a parameter, this includes the body of the method or function that declares the
+   * parameter.</li>
+   * <li>For fields and top-level variables, {@code null} will be returned because they are
+   * potentially visible in multiple sources.</li>
+   * </ul>
+   * @return the range of characters in which the name of this variable is visible
+   */
+  SourceRange get visibleRange;
+  /**
    * Return {@code true} if this variable is a const variable. Variables are const if they have been
    * marked as being const using the {@code const} modifier.
    * @return {@code true} if this variable is a const variable
    */
   bool isConst();
   /**
    * Return {@code true} if this variable is a final variable. Variables are final if they have been
    * marked as being final using either the {@code final} or {@code const} modifiers.
    * @return {@code true} if this variable is a final variable
    */
@@ skipping 13 matching lines @@
   static List<AnnotationImpl> EMPTY_ARRAY = new List<AnnotationImpl>.fixedLength(0);
   /**
    * Initialize a newly created annotation.
    * @param element the element representing the field, variable, or constructor being used as an
    * annotation
    */
   AnnotationImpl(Element element) {
     this._element = element;
   }
   Element get element => _element;
+  String toString() => "@${_element.toString()}";
 }
 /**
  * Instances of the class {@code ClassElementImpl} implement a {@code ClassElement}.
  */
 class ClassElementImpl extends ElementImpl implements ClassElement {
   /**
    * An array containing all of the accessors (getters and setters) contained in this class.
    */
   List<PropertyAccessorElement> _accessors = PropertyAccessorElementImpl.EMPTY_ARRAY;
   /**
@@ skipping 33 matching lines @@
    * An empty array of type elements.
    */
   static List<ClassElement> EMPTY_ARRAY = new List<ClassElement>.fixedLength(0);
   /**
    * Initialize a newly created class element to have the given name.
    * @param name the name of this element
    */
   ClassElementImpl(Identifier name) : super.con1(name) {
   }
   List<PropertyAccessorElement> get accessors => _accessors;
-  ElementImpl getChild(String identifier) {
+  List<InterfaceType> get allSupertypes {
+    Collection<InterfaceType> list = new Set<InterfaceType>();
+    collectAllSupertypes(list);
+    return new List.from(list);
+  }
+  ElementImpl getChild(String identifier19) {
     for (PropertyAccessorElement accessor in _accessors) {
-      if ((accessor as PropertyAccessorElementImpl).identifier == identifier) {
-        return accessor as PropertyAccessorElementImpl;
+      if (((accessor as PropertyAccessorElementImpl)).identifier == identifier19) {
+        return (accessor as PropertyAccessorElementImpl);
       }
     }
     for (ConstructorElement constructor in _constructors) {
-      if ((constructor as ConstructorElementImpl).identifier == identifier) {
-        return constructor as ConstructorElementImpl;
+      if (((constructor as ConstructorElementImpl)).identifier == identifier19) {
+        return (constructor as ConstructorElementImpl);
       }
     }
     for (FieldElement field in _fields) {
-      if ((field as FieldElementImpl).identifier == identifier) {
-        return field as FieldElementImpl;
+      if (((field as FieldElementImpl)).identifier == identifier19) {
+        return (field as FieldElementImpl);
       }
     }
     for (MethodElement method in _methods) {
-      if ((method as MethodElementImpl).identifier == identifier) {
-        return method as MethodElementImpl;
+      if (((method as MethodElementImpl)).identifier == identifier19) {
+        return (method as MethodElementImpl);
       }
     }
     for (TypeVariableElement typeVariable in _typeVariables) {
-      if ((typeVariable as TypeVariableElementImpl).identifier == identifier) {
-        return typeVariable as TypeVariableElementImpl;
+      if (((typeVariable as TypeVariableElementImpl)).identifier == identifier19) {

[danrubel, 2013/02/13 20:28:51]

extraneous parenthesis

+        return (typeVariable as TypeVariableElementImpl);
       }
     }
     return null;
   }
   List<ConstructorElement> get constructors => _constructors;
   List<FieldElement> get fields => _fields;
   List<InterfaceType> get interfaces => _interfaces;
   ElementKind get kind => ElementKind.CLASS;
   List<MethodElement> get methods => _methods;
   List<InterfaceType> get mixins => _mixins;
+  ConstructorElement getNamedConstructor(String name21) {
+    for (ConstructorElement element in constructors) {
+      String elementName = element.name;
+      if (elementName != null && elementName == name21) {
+        return element;
+      }
+    }
+    return null;
+  }
   InterfaceType get supertype => _supertype;
   InterfaceType get type => _type;
   List<TypeVariableElement> get typeVariables => _typeVariables;
+  ConstructorElement get unnamedConstructor {
+    for (ConstructorElement element in constructors) {
+      String name10 = element.name;
+      if (name10 == null || name10.isEmpty) {
+        return element;
+      }
+    }
+    return null;
+  }
   bool isAbstract() => hasModifier(Modifier.ABSTRACT);
+  PropertyAccessorElement lookUpGetter(String getterName, LibraryElement library) {
+    PropertyAccessorElement element = getGetter(getterName);
+    if (element != null && element.isAccessibleIn(library)) {
+      return element;
+    }
+    for (InterfaceType mixin in _mixins) {
+      ClassElement mixinElement = mixin.element;
+      if (mixinElement != null) {
+        element = ((mixinElement as ClassElementImpl)).getGetter(getterName);
+        if (element != null && element.isAccessibleIn(library)) {
+          return element;
+        }
+      }
+    }
+    if (_supertype != null) {
+      ClassElement supertypeElement = _supertype.element;
+      if (supertypeElement != null) {
+        element = supertypeElement.lookUpGetter(getterName, library);
+        if (element != null && element.isAccessibleIn(library)) {
+          return element;
+        }
+      }
+    }
+    return null;
+  }
+  MethodElement lookUpMethod(String methodName, LibraryElement library) {
+    MethodElement element = getMethod(methodName);
+    if (element != null && element.isAccessibleIn(library)) {
+      return element;
+    }
+    for (InterfaceType mixin in _mixins) {
+      ClassElement mixinElement = mixin.element;
+      if (mixinElement != null) {
+        element = ((mixinElement as ClassElementImpl)).getMethod(methodName);
+        if (element != null && element.isAccessibleIn(library)) {
+          return element;
+        }
+      }
+    }
+    if (_supertype != null) {
+      ClassElement supertypeElement = _supertype.element;
+      if (supertypeElement != null) {
+        element = supertypeElement.lookUpMethod(methodName, library);
+        if (element != null && element.isAccessibleIn(library)) {
+          return element;
+        }
+      }
+    }
+    return null;
+  }
+  PropertyAccessorElement lookUpSetter(String setterName, LibraryElement library) {
+    PropertyAccessorElement element = getSetter(setterName);
+    if (element != null && element.isAccessibleIn(library)) {
+      return element;
+    }
+    for (InterfaceType mixin in _mixins) {
+      ClassElement mixinElement = mixin.element;
+      if (mixinElement != null) {
+        element = ((mixinElement as ClassElementImpl)).getSetter(setterName);
+        if (element != null && element.isAccessibleIn(library)) {
+          return element;
+        }
+      }
+    }
+    if (_supertype != null) {
+      ClassElement supertypeElement = _supertype.element;
+      if (supertypeElement != null) {
+        element = supertypeElement.lookUpSetter(setterName, library);
+        if (element != null && element.isAccessibleIn(library)) {
+          return element;
+        }
+      }
+    }
+    return null;
+  }
   /**
    * Set whether this class is abstract to correspond to the given value.
    * @param isAbstract {@code true} if the class is abstract
    */
   void set abstract(bool isAbstract) {
     setModifier(Modifier.ABSTRACT, isAbstract);
   }
   /**
    * Set the accessors contained in this class to the given accessors.
    * @param accessors the accessors contained in this class
    */
-  void set accessors2(List<PropertyAccessorElement> accessors) {
-    for (PropertyAccessorElement accessor in accessors) {
-      (accessor as PropertyAccessorElementImpl).enclosingElement2 = this;
+  void set accessors(List<PropertyAccessorElement> accessors2) {
+    for (PropertyAccessorElement accessor in accessors2) {
+      ((accessor as PropertyAccessorElementImpl)).enclosingElement = this;
     }
-    this._accessors = accessors;
+    this._accessors = accessors2;
   }
   /**
    * Set the constructors contained in this class to the given constructors.
    * @param constructors the constructors contained in this class
    */
-  void set constructors2(List<ConstructorElement> constructors) {
-    for (ConstructorElement constructor in constructors) {
-      (constructor as ConstructorElementImpl).enclosingElement2 = this;
+  void set constructors(List<ConstructorElement> constructors2) {
+    for (ConstructorElement constructor in constructors2) {
+      ((constructor as ConstructorElementImpl)).enclosingElement = this;
     }
-    this._constructors = constructors;
+    this._constructors = constructors2;
   }
   /**
    * Set the fields contained in this class to the given fields.
    * @param fields the fields contained in this class
    */
-  void set fields3(List<FieldElement> fields) {
-    for (FieldElement field in fields) {
-      (field as FieldElementImpl).enclosingElement2 = this;
+  void set fields(List<FieldElement> fields2) {
+    for (FieldElement field in fields2) {
+      ((field as FieldElementImpl)).enclosingElement = this;
     }
-    this._fields = fields;
+    this._fields = fields2;
   }
   /**
    * Set the interfaces that are implemented by this class to the given types.
    * @param the interfaces that are implemented by this class
    */
-  void set interfaces2(List<InterfaceType> interfaces) {
-    this._interfaces = interfaces;
+  void set interfaces(List<InterfaceType> interfaces2) {
+    this._interfaces = interfaces2;
   }
   /**
    * Set the methods contained in this class to the given methods.
    * @param methods the methods contained in this class
    */
-  void set methods2(List<MethodElement> methods) {
-    for (MethodElement method in methods) {
-      (method as MethodElementImpl).enclosingElement2 = this;
+  void set methods(List<MethodElement> methods2) {
+    for (MethodElement method in methods2) {
+      ((method as MethodElementImpl)).enclosingElement = this;
     }
-    this._methods = methods;
+    this._methods = methods2;
   }
   /**
    * Set the mixins that are applied to the class being extended in order to derive the superclass
    * of this class to the given types.
    * @param mixins the mixins that are applied to derive the superclass of this class
    */
-  void set mixins2(List<InterfaceType> mixins) {
-    this._mixins = mixins;
+  void set mixins(List<InterfaceType> mixins2) {
+    this._mixins = mixins2;
   }
   /**
    * Set the superclass of the class to the given type.
    * @param supertype the superclass of the class
    */
-  void set supertype2(InterfaceType supertype) {
-    this._supertype = supertype;
+  void set supertype(InterfaceType supertype2) {
+    this._supertype = supertype2;
   }
   /**
    * Set the type defined by the class to the given type.
    * @param type the type defined by the class
    */
-  void set type9(InterfaceType type) {
-    this._type = type;
+  void set type(InterfaceType type4) {
+    this._type = type4;
   }
   /**
    * Set the type variables defined for this class to the given type variables.
    * @param typeVariables the type variables defined for this class
    */
-  void set typeVariables2(List<TypeVariableElement> typeVariables) {
-    for (TypeVariableElement typeVariable in typeVariables) {
-      (typeVariable as TypeVariableElementImpl).enclosingElement2 = this;
+  void set typeVariables(List<TypeVariableElement> typeVariables2) {
+    for (TypeVariableElement typeVariable in typeVariables2) {
+      ((typeVariable as TypeVariableElementImpl)).enclosingElement = this;
     }
-    this._typeVariables = typeVariables;
+    this._typeVariables = typeVariables2;
   }
-  String toString() {
-    String name15 = name;
-    return name15 == null ? "<unnamed class>" : "class ${name15}";
+  void appendTo(StringBuffer builder) {
+    String name11 = name;
+    if (name11 == null) {
+      builder.add("{unnamed class}");
+    } else {
+      builder.add(name11);
+    }
+    int variableCount = _typeVariables.length;
+    if (variableCount > 0) {
+      builder.add("<");
+      for (int i = 0; i < variableCount; i++) {
+        if (i > 0) {
+          builder.add(", ");
+        }
+        ((_typeVariables[i] as TypeVariableElementImpl)).appendTo(builder);
+      }
+      builder.add(">");
+    }
+  }
+  void collectAllSupertypes(Collection<InterfaceType> list) {
+    if (_supertype == null || list.contains(_supertype)) {
+      return;
+    }
+    list.add(_supertype);
+    ((_supertype.element as ClassElementImpl)).collectAllSupertypes(list);
+    for (InterfaceType type in interfaces) {
+      if (!list.contains(type)) {
+        list.add(type);
+        ((type.element as ClassElementImpl)).collectAllSupertypes(list);
+      }
+    }
+    for (InterfaceType type in mixins) {
+      if (!list.contains(type)) {
+        list.add(type);
+      }
+    }
+  }
+  /**
+   * Return the element representing the getter with the given name that is declared in this class,
+   * or {@code null} if this class does not declare a getter with the given name.
+   * @param getterName the name of the getter to be returned
+   * @return the getter declared in this class with the given name
+   */
+  PropertyAccessorElement getGetter(String getterName) {
+    for (PropertyAccessorElement accessor in _accessors) {
+      if (accessor.isGetter() && accessor.name == getterName) {
+        return accessor;
+      }
+    }
+    return null;
+  }
+  /**
+   * Return the element representing the method with the given name that is declared in this class,
+   * or {@code null} if this class does not declare a method with the given name.
+   * @param methodName the name of the method to be returned
+   * @return the method declared in this class with the given name
+   */
+  MethodElement getMethod(String methodName) {
+    for (MethodElement method in _methods) {
+      if (method.name == methodName) {
+        return method;
+      }
+    }
+    return null;
+  }
+  /**
+   * Return the element representing the setter with the given name that is declared in this class,
+   * or {@code null} if this class does not declare a setter with the given name.
+   * @param setterName the name of the getter to be returned
+   * @return the getter declared in this class with the given name
+   */
+  PropertyAccessorElement getSetter(String setterName) {
+    for (PropertyAccessorElement accessor in _accessors) {
+      if (accessor.isSetter() && accessor.name == setterName) {
+        return accessor;
+      }
+    }
+    return null;
   }
 }
 /**
  * Instances of the class {@code CompilationUnitElementImpl} implement a{@link CompilationUnitElement}.
  */
 class CompilationUnitElementImpl extends ElementImpl implements CompilationUnitElement {
   /**
    * An array containing all of the top-level accessors (getters and setters) contained in this
    * compilation unit.
    */
   List<PropertyAccessorElement> _accessors = PropertyAccessorElementImpl.EMPTY_ARRAY;
   /**
-   * An array containing all of the fields contained in this compilation unit.
-   */
-  List<FieldElement> _fields = FieldElementImpl.EMPTY_ARRAY;
-  /**
    * An array containing all of the top-level functions contained in this compilation unit.
    */
   List<FunctionElement> _functions = FunctionElementImpl.EMPTY_ARRAY;
   /**
+   * An array containing all of the variables contained in this compilation unit.
+   */
+  List<VariableElement> _variables = VariableElementImpl.EMPTY_ARRAY;
+  /**
    * The source that corresponds to this compilation unit.
    */
   Source _source;
   /**
    * An array containing all of the type aliases contained in this compilation unit.
    */
   List<TypeAliasElement> _typeAliases = TypeAliasElementImpl.EMPTY_ARRAY;
   /**
    * An array containing all of the types contained in this compilation unit.
    */
   List<ClassElement> _types = ClassElementImpl.EMPTY_ARRAY;
   /**
    * An empty array of compilation unit elements.
    */
   static List<CompilationUnitElement> EMPTY_ARRAY = new List<CompilationUnitElement>.fixedLength(0);
   /**
    * Initialize a newly created compilation unit element to have the given name.
    * @param name the name of this element
    */
   CompilationUnitElementImpl(String name) : super.con2(name, -1) {
   }
-  bool operator ==(Object object) => this.runtimeType == object.runtimeType && _source == (object as CompilationUnitElementImpl).source;
+  bool operator ==(Object object) => identical(this.runtimeType, object.runtimeType) && _source == ((object as CompilationUnitElementImpl)).source;
   List<PropertyAccessorElement> get accessors => _accessors;
-  ElementImpl getChild(String identifier) {
+  ElementImpl getChild(String identifier20) {
     for (PropertyAccessorElement accessor in _accessors) {
-      if ((accessor as PropertyAccessorElementImpl).identifier == identifier) {
-        return accessor as PropertyAccessorElementImpl;
+      if (((accessor as PropertyAccessorElementImpl)).identifier == identifier20) {
+        return (accessor as PropertyAccessorElementImpl);
       }
     }
-    for (FieldElement field in _fields) {
-      if ((field as FieldElementImpl).identifier == identifier) {
-        return field as FieldElementImpl;
+    for (VariableElement variable in _variables) {
+      if (((variable as VariableElementImpl)).identifier == identifier20) {
+        return (variable as VariableElementImpl);
       }
     }
     for (ExecutableElement function in _functions) {
-      if ((function as ExecutableElementImpl).identifier == identifier) {
-        return function as ExecutableElementImpl;
+      if (((function as ExecutableElementImpl)).identifier == identifier20) {
+        return (function as ExecutableElementImpl);
       }
     }
     for (TypeAliasElement typeAlias in _typeAliases) {
-      if ((typeAlias as TypeAliasElementImpl).identifier == identifier) {
-        return typeAlias as TypeAliasElementImpl;
+      if (((typeAlias as TypeAliasElementImpl)).identifier == identifier20) {
+        return (typeAlias as TypeAliasElementImpl);
       }
     }
     for (ClassElement type in _types) {
-      if ((type as ClassElementImpl).identifier == identifier) {
-        return type as ClassElementImpl;
+      if (((type as ClassElementImpl)).identifier == identifier20) {
+        return (type as ClassElementImpl);
       }
     }
     return null;
   }
-  LibraryElement get enclosingElement => super.enclosingElement as LibraryElement;
-  List<FieldElement> get fields => _fields;
+  LibraryElement get enclosingElement => (super.enclosingElement as LibraryElement);
   List<FunctionElement> get functions => _functions;
   String get identifier => source.fullName;
   ElementKind get kind => ElementKind.COMPILATION_UNIT;
   Source get source => _source;
   List<TypeAliasElement> get typeAliases => _typeAliases;
   List<ClassElement> get types => _types;
+  List<VariableElement> get variables => _variables;
   int get hashCode => _source.hashCode;
   /**
    * Set the top-level accessors (getters and setters) contained in this compilation unit to the
    * given accessors.
    * @param the top-level accessors (getters and setters) contained in this compilation unit
    */
-  void set accessors3(List<PropertyAccessorElement> accessors) {
-    for (PropertyAccessorElement accessor in accessors) {
-      (accessor as PropertyAccessorElementImpl).enclosingElement2 = this;
+  void set accessors(List<PropertyAccessorElement> accessors3) {
+    for (PropertyAccessorElement accessor in accessors3) {
+      ((accessor as PropertyAccessorElementImpl)).enclosingElement = this;
     }
-    this._accessors = accessors;
-  }
-  /**
-   * Set the fields contained in this compilation unit to the given fields.
-   * @param fields the fields contained in this compilation unit
-   */
-  void set fields4(List<FieldElement> fields) {
-    for (FieldElement field in fields) {
-      (field as FieldElementImpl).enclosingElement2 = this;
-    }
-    this._fields = fields;
+    this._accessors = accessors3;
   }
   /**
    * Set the top-level functions contained in this compilation unit to the given functions.
    * @param functions the top-level functions contained in this compilation unit
    */
-  void set functions2(List<FunctionElement> functions) {
-    for (FunctionElement function in functions) {
-      (function as FunctionElementImpl).enclosingElement2 = this;
+  void set functions(List<FunctionElement> functions2) {
+    for (FunctionElement function in functions2) {
+      ((function as FunctionElementImpl)).enclosingElement = this;
     }
-    this._functions = functions;
+    this._functions = functions2;
   }
   /**
    * Set the source that corresponds to this compilation unit to the given source.
    * @param source the source that corresponds to this compilation unit
    */
-  void set source3(Source source) {
-    this._source = source;
+  void set source(Source source5) {
+    this._source = source5;
   }
   /**
    * Set the type aliases contained in this compilation unit to the given type aliases.
    * @param typeAliases the type aliases contained in this compilation unit
    */
-  void set typeAliases2(List<TypeAliasElement> typeAliases) {
-    for (TypeAliasElement typeAlias in typeAliases) {
-      (typeAlias as TypeAliasElementImpl).enclosingElement2 = this;
+  void set typeAliases(List<TypeAliasElement> typeAliases2) {
+    for (TypeAliasElement typeAlias in typeAliases2) {
+      ((typeAlias as TypeAliasElementImpl)).enclosingElement = this;
     }
-    this._typeAliases = typeAliases;
+    this._typeAliases = typeAliases2;
   }
   /**
    * Set the types contained in this compilation unit to the given types.
    * @param types types contained in this compilation unit
    */
-  void set types2(List<ClassElement> types) {
-    for (ClassElement type in types) {
-      (type as ClassElementImpl).enclosingElement2 = this;
+  void set types(List<ClassElement> types2) {
+    for (ClassElement type in types2) {
+      ((type as ClassElementImpl)).enclosingElement = this;
     }
-    this._types = types;
+    this._types = types2;
+  }
+  /**
+   * Set the variables contained in this compilation unit to the given variables.
+   * @param variables the variables contained in this compilation unit
+   */
+  void set variables(List<VariableElement> variables2) {
+    for (VariableElement field in variables2) {
+      ((field as VariableElementImpl)).enclosingElement = this;
+    }
+    this._variables = variables2;
+  }
+  void appendTo(StringBuffer builder) {
+    if (_source == null) {
+      builder.add("{compilation unit}");
+    } else {
+      builder.add(_source.fullName);
+    }
   }
 }
 /**
  * Instances of the class {@code ConstructorElementImpl} implement a {@code ConstructorElement}.
  */
 class ConstructorElementImpl extends ExecutableElementImpl implements ConstructorElement {
   /**
    * An empty array of constructor elements.
    */
   static List<ConstructorElement> EMPTY_ARRAY = new List<ConstructorElement>.fixedLength(0);
   /**
    * Initialize a newly created constructor element to have the given name.
    * @param name the name of this element
    */
   ConstructorElementImpl(Identifier name) : super.con1(name) {
   }
-  ClassElement get enclosingElement => super.enclosingElement as ClassElement;
+  ClassElement get enclosingElement => (super.enclosingElement as ClassElement);
   ElementKind get kind => ElementKind.CONSTRUCTOR;
   bool isConst() => hasModifier(Modifier.CONST);
   bool isFactory() => hasModifier(Modifier.FACTORY);
   /**
    * Set whether this constructor represents a factory method to the given value.
    * @param isFactory {@code true} if this constructor represents a factory method
    */
   void set factory(bool isFactory) {
     setModifier(Modifier.FACTORY, isFactory);
   }
+  void appendTo(StringBuffer builder) {
+    builder.add(enclosingElement.name);
+    String name12 = name;
+    if (name12 != null && !name12.isEmpty) {
+      builder.add(".");
+      builder.add(name12);
+    }
+    super.appendTo(builder);
+  }
 }
 /**
  * Instances of the class {@code DynamicElementImpl} represent the synthetic element representing
  * the declaration of the type {@code dynamic}.
  */
 class DynamicElementImpl extends ElementImpl {
   /**
+   * Return the unique instance of this class.
+   * @return the unique instance of this class
+   */
+  static DynamicElementImpl get instance => (DynamicTypeImpl.instance.element as DynamicElementImpl);
+  /**
    * The type defined by this element.
    */
   DynamicTypeImpl _type;
   /**
    * Initialize a newly created instance of this class. Instances of this class should <b>not</b> be
    * created except as part of creating the type associated with this element. The single instance
-   * of this class should be accessed through the single instance of the class{@link DynamicTypeImpl}.
+   * of this class should be accessed through the method {@link #getInstance()}.
    */
   DynamicElementImpl() : super.con2(Keyword.DYNAMIC.syntax, -1) {
     setModifier(Modifier.SYNTHETIC, true);
   }
   ElementKind get kind => ElementKind.DYNAMIC;
   /**
    * Return the type defined by this element.
    * @return the type defined by this element
    */
   DynamicTypeImpl get type => _type;
   /**
    * Set the type defined by this element to the given type.
    * @param type the type defined by this element
    */
-  void set type10(DynamicTypeImpl type) {
-    this._type = type;
+  void set type(DynamicTypeImpl type5) {
+    this._type = type5;
   }
 }
 /**
  * The abstract class {@code ElementImpl} implements the behavior common to objects that implement
  * an {@link Element}.
  */
 abstract class ElementImpl implements Element {
   /**
    * The enclosing element of this element, or {@code null} if this element is at the root of the
    * element structure.
@@ skipping 13 matching lines @@
    */
   Set<Modifier> _modifiers;
   /**
    * An array containing all of the metadata associated with this element.
    */
   List<Annotation> _metadata = AnnotationImpl.EMPTY_ARRAY;
   /**
    * Initialize a newly created element to have the given name.
    * @param name the name of this element
    */
-  ElementImpl.con1(Identifier name) {
-    _jtd_constructor_129_impl(name);
+  ElementImpl.con1(Identifier name22) {
+    _jtd_constructor_135_impl(name22);
   }
-  _jtd_constructor_129_impl(Identifier name) {
-    _jtd_constructor_130_impl(name == null ? "" : name.name, name == null ? -1 : name.offset);
+  _jtd_constructor_135_impl(Identifier name22) {
+    _jtd_constructor_136_impl(name22 == null ? "" : name22.name, name22 == null ? -1 : name22.offset);
   }
   /**
    * Initialize a newly created element to have the given name.
    * @param name the name of this element
    * @param nameOffset the offset of the name of this element in the file that contains the
    * declaration of this element
    */
-  ElementImpl.con2(String name, int nameOffset) {
-    _jtd_constructor_130_impl(name, nameOffset);
+  ElementImpl.con2(String name8, int nameOffset2) {
+    _jtd_constructor_136_impl(name8, nameOffset2);
   }
-  _jtd_constructor_130_impl(String name, int nameOffset) {
-    this._name = name;
-    this._nameOffset = nameOffset;
+  _jtd_constructor_136_impl(String name8, int nameOffset2) {
+    this._name = name8;
+    this._nameOffset = nameOffset2;
     this._modifiers = new Set();
   }
-  bool operator ==(Object object) => object is Element && (object as Element).location == location;
+  bool operator ==(Object object) => object is Element && ((object as Element)).location == location;
   Element getAncestor(Type elementClass) {
     Element ancestor = _enclosingElement;
     while (ancestor != null && !isInstanceOf(ancestor, elementClass)) {
       ancestor = ancestor.enclosingElement;
     }
-    return ancestor as Element;
+    return (ancestor as Element);
   }
   /**
    * Return the child of this element that is uniquely identified by the given identifier, or{@code null} if there is no such child.
    * @param identifier the identifier used to select a child
    * @return the child of this element with the given identifier
    */
   ElementImpl getChild(String identifier) => null;
   AnalysisContext get context {
     if (_enclosingElement == null) {
       return null;
     }
     return _enclosingElement.context;
   }
   Element get enclosingElement => _enclosingElement;
   LibraryElement get library => getAncestor(LibraryElement);
   ElementLocation get location => new ElementLocationImpl.con1(this);
   List<Annotation> get metadata => _metadata;
   String get name => _name;
   int get nameOffset => _nameOffset;
+  Source get source {
+    if (_enclosingElement == null) {
+      return null;
+    }
+    return _enclosingElement.source;
+  }
   int get hashCode => location.hashCode;
+  bool isAccessibleIn(LibraryElement library18) {
+    if (Identifier.isPrivateName(_name)) {
+      return library18 == library;
+    }
+    return true;
+  }
   bool isSynthetic() => hasModifier(Modifier.SYNTHETIC);
   /**
    * Set the metadata associate with this element to the given array of annotations.
    * @param metadata the metadata to be associated with this element
    */
-  void set metadata2(List<Annotation> metadata) {
-    this._metadata = metadata;
+  void set metadata(List<Annotation> metadata2) {
+    this._metadata = metadata2;
   }
   /**
    * Set whether this element is synthetic to correspond to the given value.
    * @param isSynthetic {@code true} if the element is synthetic
    */
   void set synthetic(bool isSynthetic) {
     setModifier(Modifier.SYNTHETIC, isSynthetic);
   }
+  String toString() {
+    StringBuffer builder = new StringBuffer();
+    appendTo(builder);
+    return builder.toString();
+  }
+  /**
+   * Append a textual representation of this type to the given builder.
+   * @param builder the builder to which the text is to be appended
+   */
+  void appendTo(StringBuffer builder) {
+    if (_name == null) {
+      builder.add("<unnamed ");
+      builder.add(runtimeType.toString());
+      builder.add(">");
+    } else {
+      builder.add(_name);
+    }
+  }
   /**
    * Return an identifier that uniquely identifies this element among the children of this element's
    * parent.
    * @return an identifier that uniquely identifies this element relative to its parent
    */
   String get identifier => name;
   /**
    * Return {@code true} if this element has the given modifier associated with it.
    * @param modifier the modifier being tested for
    * @return {@code true} if this element has the given modifier associated with it
    */
   bool hasModifier(Modifier modifier) => _modifiers.contains(modifier);
   /**
    * Set the enclosing element of this element to the given element.
    * @param element the enclosing element of this element
    */
-  void set enclosingElement2(ElementImpl element) {
+  void set enclosingElement(ElementImpl element) {
     _enclosingElement = element;
   }
   /**
    * Set whether the given modifier is associated with this element to correspond to the given
    * value.
    * @param modifier the modifier to be set
    * @param value {@code true} if the modifier is to be associated with this element
    */
   void setModifier(Modifier modifier, bool value) {
     if (value) {
       _modifiers.add(modifier);
     } else {
       _modifiers.remove(modifier);
     }
   }
 }
 /**
  * Instances of the class {@code ElementLocationImpl} implement an {@link ElementLocation}.
  */
 class ElementLocationImpl implements ElementLocation {
   /**
    * The path to the element whose location is represented by this object.
    */
   List<String> _components;
   /**
    * The character used to separate components in the encoded form.
    */
-  static int _SEPARATOR_CHAR = 0x3b;
+  static int _SEPARATOR_CHAR = 0x3B;
   /**
    * Initialize a newly created location to represent the given element.
    * @param element the element whose location is being represented
    */
   ElementLocationImpl.con1(Element element) {
-    _jtd_constructor_131_impl(element);
+    _jtd_constructor_137_impl(element);
   }
-  _jtd_constructor_131_impl(Element element) {
+  _jtd_constructor_137_impl(Element element) {
     List<String> components = new List<String>();
     Element ancestor = element;
     while (ancestor != null) {
-      components.insertRange(0, 1, (ancestor as ElementImpl).identifier);
+      components.insertRange(0, 1, ((ancestor as ElementImpl)).identifier);
       ancestor = ancestor.enclosingElement;
     }
     this._components = new List.from(components);
   }
   /**
    * Initialize a newly created location from the given encoded form.
    * @param encoding the encoded form of a location
    */
   ElementLocationImpl.con2(String encoding) {
-    _jtd_constructor_132_impl(encoding);
+    _jtd_constructor_138_impl(encoding);
   }
-  _jtd_constructor_132_impl(String encoding) {
+  _jtd_constructor_138_impl(String encoding) {
     this._components = decode(encoding);
   }
   bool operator ==(Object object) {
     if (object is! ElementLocationImpl) {
       return false;
     }
-    ElementLocationImpl location = object as ElementLocationImpl;
+    ElementLocationImpl location = (object as ElementLocationImpl);
     return JavaArrays.equals(_components, location._components);
   }
   /**
    * Return the path to the element whose location is represented by this object.
    * @return the path to the element whose location is represented by this object
    */
   List<String> get components => _components;
   String get encoding {
     StringBuffer builder = new StringBuffer();
     int length2 = _components.length;
     for (int i = 0; i < length2; i++) {
       if (i > 0) {
-        builder.addCharCode(ElementLocationImpl._SEPARATOR_CHAR);
+        builder.addCharCode(_SEPARATOR_CHAR);
       }
       encode(builder, _components[i]);
     }
     return builder.toString();
   }
   int get hashCode => JavaArrays.makeHashCode(_components);
+  String toString() => encoding;
   /**
    * Decode the encoded form of a location into an array of components.
    * @param encoding the encoded form of a location
    * @return the components that were encoded
    */
   List<String> decode(String encoding) {
     List<String> components = new List<String>();
     StringBuffer builder = new StringBuffer();
     int index = 0;
     int length3 = encoding.length;
     while (index < length3) {
-      int currentChar = encoding.charCodeAt(index);
-      if (currentChar == ElementLocationImpl._SEPARATOR_CHAR) {
-        if (index + 1 < length3 && encoding.charCodeAt(index + 1) == ElementLocationImpl._SEPARATOR_CHAR) {
-          builder.addCharCode(ElementLocationImpl._SEPARATOR_CHAR);
+      int currentChar = encoding.codeUnitAt(index);
+      if (currentChar == _SEPARATOR_CHAR) {
+        if (index + 1 < length3 && encoding.codeUnitAt(index + 1) == _SEPARATOR_CHAR) {
+          builder.addCharCode(_SEPARATOR_CHAR);
           index += 2;
         } else {
           components.add(builder.toString());
           builder.clear();
           index++;
         }
       } else {
         builder.addCharCode(currentChar);
         index++;
       }
     }
     if (builder.length > 0) {
       components.add(builder.toString());
     }
     return new List.from(components);
   }
   /**
    * Append an encoded form of the given component to the given builder.
    * @param builder the builder to which the encoded component is to be appended
    * @param component the component to be appended to the builder
    */
   void encode(StringBuffer builder, String component) {
     int length4 = component.length;
     for (int i = 0; i < length4; i++) {
-      int currentChar = component.charCodeAt(i);
-      if (currentChar == ElementLocationImpl._SEPARATOR_CHAR) {
-        builder.addCharCode(ElementLocationImpl._SEPARATOR_CHAR);
+      int currentChar = component.codeUnitAt(i);
+      if (currentChar == _SEPARATOR_CHAR) {
+        builder.addCharCode(_SEPARATOR_CHAR);
       }
       builder.addCharCode(currentChar);
     }
   }
 }
 /**
  * The abstract class {@code ExecutableElementImpl} implements the behavior common to{@code ExecutableElement}s.
  */
 abstract class ExecutableElementImpl extends ElementImpl implements ExecutableElement {
   /**
@@ skipping 18 matching lines @@
   FunctionType _type;
   /**
    * An empty array of executable elements.
    */
   static List<ExecutableElement> EMPTY_ARRAY = new List<ExecutableElement>.fixedLength(0);
   /**
    * Initialize a newly created executable element to have the given name.
    * @param name the name of this element
    */
   ExecutableElementImpl.con1(Identifier name) : super.con1(name) {
-    _jtd_constructor_133_impl(name);
+    _jtd_constructor_139_impl(name);
   }
-  _jtd_constructor_133_impl(Identifier name) {
+  _jtd_constructor_139_impl(Identifier name) {
   }
   /**
    * Initialize a newly created executable element to have the given name.
    * @param name the name of this element
    * @param nameOffset the offset of the name of this element in the file that contains the
    * declaration of this element
    */
   ExecutableElementImpl.con2(String name, int nameOffset) : super.con2(name, nameOffset) {
-    _jtd_constructor_134_impl(name, nameOffset);
+    _jtd_constructor_140_impl(name, nameOffset);
   }
-  _jtd_constructor_134_impl(String name, int nameOffset) {
+  _jtd_constructor_140_impl(String name, int nameOffset) {
   }
-  ElementImpl getChild(String identifier) {
+  ElementImpl getChild(String identifier21) {
     for (ExecutableElement function in _functions) {
-      if ((function as ExecutableElementImpl).identifier == identifier) {
-        return function as ExecutableElementImpl;
+      if (((function as ExecutableElementImpl)).identifier == identifier21) {
+        return (function as ExecutableElementImpl);
       }
     }
     for (LabelElement label in _labels) {
-      if ((label as LabelElementImpl).identifier == identifier) {
-        return label as LabelElementImpl;
+      if (((label as LabelElementImpl)).identifier == identifier21) {
+        return (label as LabelElementImpl);
       }
     }
     for (VariableElement variable in _localVariables) {
-      if ((variable as VariableElementImpl).identifier == identifier) {
-        return variable as VariableElementImpl;
+      if (((variable as VariableElementImpl)).identifier == identifier21) {
+        return (variable as VariableElementImpl);
       }
     }
     for (ParameterElement parameter in _parameters) {
-      if ((parameter as ParameterElementImpl).identifier == identifier) {
-        return parameter as ParameterElementImpl;
+      if (((parameter as ParameterElementImpl)).identifier == identifier21) {
+        return (parameter as ParameterElementImpl);
       }
     }
     return null;
   }
   List<ExecutableElement> get functions => _functions;
   List<LabelElement> get labels => _labels;
   List<VariableElement> get localVariables => _localVariables;
   List<ParameterElement> get parameters => _parameters;
   FunctionType get type => _type;
   /**
    * Set the functions defined within this executable element to the given functions.
    * @param functions the functions defined within this executable element
    */
-  void set functions3(List<ExecutableElement> functions) {
-    for (ExecutableElement function in functions) {
-      (function as ExecutableElementImpl).enclosingElement2 = this;
+  void set functions(List<ExecutableElement> functions3) {
+    for (ExecutableElement function in functions3) {
+      ((function as ExecutableElementImpl)).enclosingElement = this;
     }
-    this._functions = functions;
+    this._functions = functions3;
   }
   /**
    * Set the labels defined within this executable element to the given labels.
    * @param labels the labels defined within this executable element
    */
-  void set labels2(List<LabelElement> labels) {
-    for (LabelElement label in labels) {
-      (label as LabelElementImpl).enclosingElement2 = this;
+  void set labels(List<LabelElement> labels2) {
+    for (LabelElement label in labels2) {
+      ((label as LabelElementImpl)).enclosingElement = this;
     }
-    this._labels = labels;
+    this._labels = labels2;
   }
   /**
    * Set the local variables defined within this executable element to the given variables.
    * @param localVariables the local variables defined within this executable element
    */
-  void set localVariables2(List<VariableElement> localVariables) {
-    for (VariableElement variable in localVariables) {
-      (variable as VariableElementImpl).enclosingElement2 = this;
+  void set localVariables(List<VariableElement> localVariables2) {
+    for (VariableElement variable in localVariables2) {
+      ((variable as VariableElementImpl)).enclosingElement = this;
     }
-    this._localVariables = localVariables;
+    this._localVariables = localVariables2;
   }
   /**
    * Set the parameters defined by this executable element to the given parameters.
    * @param parameters the parameters defined by this executable element
    */
-  void set parameters7(List<ParameterElement> parameters) {
-    for (ParameterElement parameter in parameters) {
-      (parameter as ParameterElementImpl).enclosingElement2 = this;
+  void set parameters(List<ParameterElement> parameters7) {
+    for (ParameterElement parameter in parameters7) {
+      ((parameter as ParameterElementImpl)).enclosingElement = this;
     }
-    this._parameters = parameters;
+    this._parameters = parameters7;
   }
   /**
    * Set the type of function defined by this executable element to the given type.
    * @param type the type of function defined by this executable element
    */
-  void set type11(FunctionType type) {
-    this._type = type;
+  void set type(FunctionType type6) {
+    this._type = type6;
+  }
+  void appendTo(StringBuffer builder) {
+    builder.add("(");
+    int parameterCount = _parameters.length;
+    for (int i = 0; i < parameterCount; i++) {
+      if (i > 0) {
+        builder.add(", ");
+      }
+      ((_parameters[i] as ParameterElementImpl)).appendTo(builder);
+    }
+    builder.add(")");
+    if (_type != null) {
+      builder.add(" -> ");
+      builder.add(_type.returnType);
+    }
   }
 }
 /**
  * Instances of the class {@code ExportElementImpl} implement an {@link ExportElement}.
  */
 class ExportElementImpl extends ElementImpl implements ExportElement {
   /**
    * The library that is exported from this library by this export directive.
    */
   LibraryElement _exportedLibrary;
   /**
    * The combinators that were specified as part of the export directive in the order in which they
    * were specified.
    */
   List<NamespaceCombinator> _combinators = NamespaceCombinator.EMPTY_ARRAY;
   /**
    * Initialize a newly created export element.
    */
   ExportElementImpl() : super.con1(null) {
   }
   List<NamespaceCombinator> get combinators => _combinators;
   LibraryElement get exportedLibrary => _exportedLibrary;
   ElementKind get kind => ElementKind.EXPORT;
   /**
    * Set the combinators that were specified as part of the export directive to the given array of
    * combinators.
    * @param combinators the combinators that were specified as part of the export directive
    */
-  void set combinators2(List<NamespaceCombinator> combinators) {
-    this._combinators = combinators;
+  void set combinators(List<NamespaceCombinator> combinators2) {
+    this._combinators = combinators2;
   }
   /**
    * Set the library that is exported from this library by this import directive to the given
    * library.
    * @param exportedLibrary the library that is exported from this library
    */
-  void set exportedLibrary2(LibraryElement exportedLibrary) {
-    this._exportedLibrary = exportedLibrary;
+  void set exportedLibrary(LibraryElement exportedLibrary2) {
+    this._exportedLibrary = exportedLibrary2;
+  }
+  void appendTo(StringBuffer builder) {
+    builder.add("export ");
+    ((_exportedLibrary as LibraryElementImpl)).appendTo(builder);
   }
 }
 /**
  * Instances of the class {@code FieldElementImpl} implement a {@code FieldElement}.
  */
 class FieldElementImpl extends VariableElementImpl implements FieldElement {
   /**
    * The getter associated with this field.
    */
   PropertyAccessorElement _getter;
   /**
    * The setter associated with this field, or {@code null} if the field is effectively{@code final} and therefore does not have a setter associated with it.
    */
   PropertyAccessorElement _setter;
   /**
    * An empty array of field elements.
    */
   static List<FieldElement> EMPTY_ARRAY = new List<FieldElement>.fixedLength(0);
   /**
    * Initialize a newly created field element to have the given name.
    * @param name the name of this element
    */
   FieldElementImpl.con1(Identifier name) : super.con1(name) {
-    _jtd_constructor_136_impl(name);
+    _jtd_constructor_142_impl(name);
   }
-  _jtd_constructor_136_impl(Identifier name) {
+  _jtd_constructor_142_impl(Identifier name) {
   }
   /**
    * Initialize a newly created synthetic field element to have the given name.
    * @param name the name of this element
    */
   FieldElementImpl.con2(String name) : super.con2(name, -1) {
-    _jtd_constructor_137_impl(name);
+    _jtd_constructor_143_impl(name);
   }
-  _jtd_constructor_137_impl(String name) {
+  _jtd_constructor_143_impl(String name) {
     synthetic = true;
   }
   PropertyAccessorElement get getter => _getter;
   ElementKind get kind => ElementKind.FIELD;
   PropertyAccessorElement get setter => _setter;
   bool isStatic() => hasModifier(Modifier.STATIC);
   /**
    * Set the getter associated with this field to the given accessor.
    * @param getter the getter associated with this field
    */
-  void set getter2(PropertyAccessorElement getter) {
-    this._getter = getter;
+  void set getter(PropertyAccessorElement getter2) {
+    this._getter = getter2;
   }
   /**
    * Set the setter associated with this field to the given accessor.
    * @param setter the setter associated with this field
    */
-  void set setter2(PropertyAccessorElement setter) {
-    this._setter = setter;
+  void set setter(PropertyAccessorElement setter2) {
+    this._setter = setter2;
   }
   /**
    * Set whether this field is static to correspond to the given value.
    * @param isStatic {@code true} if the field is static
    */
   void set static(bool isStatic) {
     setModifier(Modifier.STATIC, isStatic);
   }
-  String toString() => "field ${type} ${name}";
 }
 /**
  * Instances of the class {@code FunctionElementImpl} implement a {@code FunctionElement}.
  */
 class FunctionElementImpl extends ExecutableElementImpl implements FunctionElement {
   /**
+   * The offset to the beginning of the visible range for this element.
+   */
+  int _visibleRangeOffset = 0;
+  /**
+   * The length of the visible range for this element, or {@code -1} if this element does not have a
+   * visible range.
+   */
+  int _visibleRangeLength = -1;
+  /**
    * An empty array of function elements.
    */
   static List<FunctionElement> EMPTY_ARRAY = new List<FunctionElement>.fixedLength(0);
   /**
    * Initialize a newly created synthetic function element.
    */
   FunctionElementImpl() : super.con2("", -1) {
-    _jtd_constructor_138_impl();
+    _jtd_constructor_144_impl();
   }
-  _jtd_constructor_138_impl() {
+  _jtd_constructor_144_impl() {
     synthetic = true;
   }
   /**
    * Initialize a newly created function element to have the given name.
    * @param name the name of this element
    */
   FunctionElementImpl.con1(Identifier name) : super.con1(name) {
-    _jtd_constructor_139_impl(name);
+    _jtd_constructor_145_impl(name);
   }
-  _jtd_constructor_139_impl(Identifier name) {
+  _jtd_constructor_145_impl(Identifier name) {
   }
   String get identifier => name;
   ElementKind get kind => ElementKind.FUNCTION;
+  SourceRange get visibleRange {
+    if (_visibleRangeLength < 0) {
+      return null;
+    }
+    return new SourceRange(_visibleRangeOffset, _visibleRangeLength);
+  }
+  /**
+   * Set the visible range for this element to the range starting at the given offset with the given
+   * length.
+   * @param offset the offset to the beginning of the visible range for this element
+   * @param length the length of the visible range for this element, or {@code -1} if this element
+   * does not have a visible range
+   */
+  void setVisibleRange(int offset, int length) {
+    _visibleRangeOffset = offset;
+    _visibleRangeLength = length;
+  }
+  void appendTo(StringBuffer builder) {
+    String name13 = name;
+    if (name13 != null) {
+      builder.add(name13);
+    }
+    super.appendTo(builder);
+  }
 }
 /**
  * Instances of the class {@code ShowCombinatorImpl} implement a {@link ShowCombinator}.
  */
 class HideCombinatorImpl implements HideCombinator {
   /**
    * The names that are not to be made visible in the importing library even if they are defined in
    * the imported library.
    */
   List<String> _hiddenNames = StringUtilities.EMPTY_ARRAY;
   /**
    * Initialize a newly created combinator.
    */
   HideCombinatorImpl() : super() {
   }
   List<String> get hiddenNames => _hiddenNames;
   /**
    * Set the names that are not to be made visible in the importing library even if they are defined
    * in the imported library to the given names.
    * @param hiddenNames the names that are not to be made visible in the importing library
    */
-  void set hiddenNames2(List<String> hiddenNames) {
-    this._hiddenNames = hiddenNames;
+  void set hiddenNames(List<String> hiddenNames2) {
+    this._hiddenNames = hiddenNames2;
+  }
+  String toString() {
+    StringBuffer builder = new StringBuffer();
+    builder.add("show ");
+    int count = _hiddenNames.length;
+    for (int i = 0; i < count; i++) {
+      if (i > 0) {
+        builder.add(", ");
+      }
+      builder.add(_hiddenNames[i]);
+    }
+    return builder.toString();
   }
 }
 /**
  * Instances of the class {@code HtmlElementImpl} implement an {@link HtmlElement}.
  */
 class HtmlElementImpl extends ElementImpl implements HtmlElement {
   /**
    * An empty array of HTML file elements.
    */
   static List<HtmlElement> EMPTY_ARRAY = new List<HtmlElement>.fixedLength(0);
@@ skipping 10 matching lines @@
    */
   Source _source;
   /**
    * Initialize a newly created HTML element to have the given name.
    * @param context the analysis context in which the HTML file is defined
    * @param name the name of this element
    */
   HtmlElementImpl(AnalysisContext context, String name) : super.con2(name, -1) {
     this._context = context;
   }
-  bool operator ==(Object object) => this.runtimeType == object.runtimeType && _source == (object as CompilationUnitElementImpl).source;
+  bool operator ==(Object object) => identical(this.runtimeType, object.runtimeType) && _source == ((object as CompilationUnitElementImpl)).source;
   AnalysisContext get context => _context;
   ElementKind get kind => ElementKind.HTML;
   List<LibraryElement> get libraries => _libraries;
   Source get source => _source;
   int get hashCode => _source.hashCode;
   /**
    * Set the libraries contained in or referenced from script tags in the HTML file to the given
    * libraries.
    * @param libraries the libraries contained in or referenced from script tags in the HTML file
    */
-  void set libraries2(List<LibraryElement> libraries) {
-    this._libraries = libraries;
+  void set libraries(List<LibraryElement> libraries2) {
+    this._libraries = libraries2;
   }
   /**
    * Set the source that corresponds to this HTML file to the given source.
    * @param source the source that corresponds to this HTML file
    */
-  void set source4(Source source) {
-    this._source = source;
+  void set source(Source source6) {
+    this._source = source6;
+  }
+  void appendTo(StringBuffer builder) {
+    if (_source == null) {
+      builder.add("{HTML file}");
+    } else {
+      builder.add(_source.fullName);
+    }
   }
 }
 /**
  * Instances of the class {@code ImportElementImpl} implement an {@link ImportElement}.
  */
 class ImportElementImpl extends ElementImpl implements ImportElement {
   /**
    * The library that is imported into this library by this import directive.
    */
   LibraryElement _importedLibrary;
@@ skipping 14 matching lines @@
   }
   List<NamespaceCombinator> get combinators => _combinators;
   LibraryElement get importedLibrary => _importedLibrary;
   ElementKind get kind => ElementKind.IMPORT;
   PrefixElement get prefix => _prefix;
   /**
    * Set the combinators that were specified as part of the import directive to the given array of
    * combinators.
    * @param combinators the combinators that were specified as part of the import directive
    */
-  void set combinators3(List<NamespaceCombinator> combinators) {
-    this._combinators = combinators;
+  void set combinators(List<NamespaceCombinator> combinators3) {
+    this._combinators = combinators3;
   }
   /**
    * Set the library that is imported into this library by this import directive to the given
    * library.
    * @param importedLibrary the library that is imported into this library
    */
-  void set importedLibrary2(LibraryElement importedLibrary) {
-    this._importedLibrary = importedLibrary;
+  void set importedLibrary(LibraryElement importedLibrary3) {
+    this._importedLibrary = importedLibrary3;
   }
   /**
    * Set the prefix that was specified as part of the import directive to the given prefix.
    * @param prefix the prefix that was specified as part of the import directive
    */
-  void set prefix4(PrefixElement prefix) {
-    this._prefix = prefix;
+  void set prefix(PrefixElement prefix3) {
+    this._prefix = prefix3;
+  }
+  void appendTo(StringBuffer builder) {
+    builder.add("import ");
+    ((_importedLibrary as LibraryElementImpl)).appendTo(builder);
   }
 }
 /**
  * Instances of the class {@code LabelElementImpl} implement a {@code LabelElement}.
  */
 class LabelElementImpl extends ElementImpl implements LabelElement {
   /**
    * A flag indicating whether this label is associated with a {@code switch} statement.
    */
   bool _onSwitchStatement = false;
   /**
    * A flag indicating whether this label is associated with a {@code switch} member ({@code case}or {@code default}).
    */
   bool _onSwitchMember = false;
   /**
    * An empty array of label elements.
    */
   static List<LabelElement> EMPTY_ARRAY = new List<LabelElement>.fixedLength(0);
   /**
    * Initialize a newly created label element to have the given name.
    * @param name the name of this element
    * @param onSwitchStatement {@code true} if this label is associated with a {@code switch}statement
    * @param onSwitchMember {@code true} if this label is associated with a {@code switch} member
    */
   LabelElementImpl(Identifier name, bool onSwitchStatement, bool onSwitchMember) : super.con1(name) {
     this._onSwitchStatement = onSwitchStatement;
     this._onSwitchMember = onSwitchMember;
   }
-  ExecutableElement get enclosingElement => super.enclosingElement as ExecutableElement;
+  ExecutableElement get enclosingElement => (super.enclosingElement as ExecutableElement);
   ElementKind get kind => ElementKind.LABEL;
   /**
    * Return {@code true} if this label is associated with a {@code switch} member ({@code case} or{@code default}).
    * @return {@code true} if this label is associated with a {@code switch} member
    */
   bool isOnSwitchMember() => _onSwitchMember;
   /**
    * Return {@code true} if this label is associated with a {@code switch} statement.
    * @return {@code true} if this label is associated with a {@code switch} statement
    */
@@ skipping 32 matching lines @@
    */
   List<CompilationUnitElement> _parts = CompilationUnitElementImpl.EMPTY_ARRAY;
   /**
    * Initialize a newly created library element to have the given name.
    * @param context the analysis context in which the library is defined
    * @param name the name of this element
    */
   LibraryElementImpl(AnalysisContext context, LibraryIdentifier name) : super.con1(name) {
     this._context = context;
   }
-  bool operator ==(Object object) => this.runtimeType == object.runtimeType && _definingCompilationUnit == (object as LibraryElementImpl).definingCompilationUnit;
-  ElementImpl getChild(String identifier) {
-    if ((_definingCompilationUnit as CompilationUnitElementImpl).identifier == identifier) {
-      return _definingCompilationUnit as CompilationUnitElementImpl;
+  bool operator ==(Object object) => identical(this.runtimeType, object.runtimeType) && _definingCompilationUnit == ((object as LibraryElementImpl)).definingCompilationUnit;
+  ElementImpl getChild(String identifier22) {
+    if (((_definingCompilationUnit as CompilationUnitElementImpl)).identifier == identifier22) {
+      return (_definingCompilationUnit as CompilationUnitElementImpl);
     }
     for (CompilationUnitElement part in _parts) {
-      if ((part as CompilationUnitElementImpl).identifier == identifier) {
-        return part as CompilationUnitElementImpl;
+      if (((part as CompilationUnitElementImpl)).identifier == identifier22) {
+        return (part as CompilationUnitElementImpl);
       }
     }
     return null;
   }
   AnalysisContext get context => _context;
   CompilationUnitElement get definingCompilationUnit => _definingCompilationUnit;
   FunctionElement get entryPoint => _entryPoint;
+  List<LibraryElement> get exportedLibraries {
+    Set<LibraryElement> libraries = new Set<LibraryElement>();
+    for (ExportElement element in _exports) {
+      LibraryElement library = element.exportedLibrary;
+      javaSetAdd(libraries, library);
+    }
+    return new List.from(libraries);
+  }
   List<ExportElement> get exports => _exports;
   String get identifier => _definingCompilationUnit.source.fullName;
   List<LibraryElement> get importedLibraries {
     Set<LibraryElement> libraries = new Set<LibraryElement>();
     for (ImportElement element in _imports) {
       LibraryElement prefix = element.importedLibrary;
       javaSetAdd(libraries, prefix);
     }
     return new List.from(libraries);
   }
   List<ImportElement> get imports => _imports;
   ElementKind get kind => ElementKind.LIBRARY;
   List<CompilationUnitElement> get parts => _parts;
   List<PrefixElement> get prefixes {
     Set<PrefixElement> prefixes = new Set<PrefixElement>();
     for (ImportElement element in _imports) {
-      PrefixElement prefix5 = element.prefix;
-      if (prefix5 != null) {
-        javaSetAdd(prefixes, prefix5);
+      PrefixElement prefix4 = element.prefix;
+      if (prefix4 != null) {
+        javaSetAdd(prefixes, prefix4);
       }
     }
     return new List.from(prefixes);
   }
   int get hashCode => _definingCompilationUnit.hashCode;
+  bool isBrowserApplication() => _entryPoint != null && isOrImportsBrowserLibrary();
   /**
    * Set the compilation unit that defines this library to the given compilation unit.
    * @param definingCompilationUnit the compilation unit that defines this library
    */
-  void set definingCompilationUnit2(CompilationUnitElement definingCompilationUnit) {
-    (definingCompilationUnit as CompilationUnitElementImpl).enclosingElement2 = this;
-    this._definingCompilationUnit = definingCompilationUnit;
+  void set definingCompilationUnit(CompilationUnitElement definingCompilationUnit2) {
+    ((definingCompilationUnit2 as CompilationUnitElementImpl)).enclosingElement = this;
+    this._definingCompilationUnit = definingCompilationUnit2;
   }
   /**
    * Set the entry point for this library to the given function.
    * @param entryPoint the entry point for this library
    */
-  void set entryPoint2(FunctionElement entryPoint) {
-    (entryPoint as FunctionElementImpl).enclosingElement2 = this;
-    this._entryPoint = entryPoint;
+  void set entryPoint(FunctionElement entryPoint2) {
+    ((entryPoint2 as FunctionElementImpl)).enclosingElement = this;
+    this._entryPoint = entryPoint2;
   }
   /**
    * Set the specifications of all of the exports defined in this library to the given array.
    * @param exports the specifications of all of the exports defined in this library
    */
-  void set exports2(List<ExportElement> exports) {
-    this._exports = exports;
+  void set exports(List<ExportElement> exports2) {
+    this._exports = exports2;
   }
   /**
    * Set the specifications of all of the imports defined in this library to the given array.
    * @param imports the specifications of all of the imports defined in this library
    */
-  void set imports2(List<ImportElement> imports) {
-    this._imports = imports;
+  void set imports(List<ImportElement> imports2) {
+    this._imports = imports2;
   }
   /**
    * Set the compilation units that are included in this library using a {@code part} directive.
    * @param parts the compilation units that are included in this library using a {@code part}directive
    */
-  void set parts2(List<CompilationUnitElement> parts) {
-    for (CompilationUnitElement compilationUnit in parts) {
-      (compilationUnit as CompilationUnitElementImpl).enclosingElement2 = this;
+  void set parts(List<CompilationUnitElement> parts2) {
+    for (CompilationUnitElement compilationUnit in parts2) {
+      ((compilationUnit as CompilationUnitElementImpl)).enclosingElement = this;
     }
-    this._parts = parts;
+    this._parts = parts2;
+  }
+  /**
+   * Answer {@code true} if the receiver directly or indirectly imports the dart:html libraries.
+   * @return {@code true} if the receiver directly or indirectly imports the dart:html libraries
+   */
+  bool isOrImportsBrowserLibrary() {
+    List<LibraryElement> visited = new List<LibraryElement>(10);
+    Source htmlLibSource = definingCompilationUnit.source.resolve(DartSdk.DART_HTML);
+    visited.add(this);
+    for (int index = 0; index < visited.length; index++) {
+      LibraryElement library = visited[index];
+      Source source8 = library.definingCompilationUnit.source;
+      if (source8 == htmlLibSource) {
+        return true;
+      }
+      for (LibraryElement importedLibrary in library.importedLibraries) {
+        if (!visited.contains(importedLibrary)) {
+          visited.add(importedLibrary);
+        }
+      }
+      for (LibraryElement exportedLibrary in library.exportedLibraries) {
+        if (!visited.contains(exportedLibrary)) {
+          visited.add(exportedLibrary);
+        }
+      }
+    }
+    return false;
   }
 }
 /**
  * Instances of the class {@code MethodElementImpl} implement a {@code MethodElement}.
  */
 class MethodElementImpl extends ExecutableElementImpl implements MethodElement {
   /**
    * An empty array of method elements.
    */
   static List<MethodElement> EMPTY_ARRAY = new List<MethodElement>.fixedLength(0);
   /**
    * Initialize a newly created method element to have the given name.
    * @param name the name of this element
    */
-  MethodElementImpl(Identifier name) : super.con1(name) {
+  MethodElementImpl.con1(Identifier name) : super.con1(name) {
+    _jtd_constructor_151_impl(name);
   }
-  ClassElement get enclosingElement => super.enclosingElement as ClassElement;
+  _jtd_constructor_151_impl(Identifier name) {
+  }
+  /**
+   * Initialize a newly created method element to have the given name.
+   * @param name the name of this element
+   * @param nameOffset the offset of the name of this element in the file that contains the
+   * declaration of this element
+   */
+  MethodElementImpl.con2(String name, int nameOffset) : super.con2(name, nameOffset) {
+    _jtd_constructor_152_impl(name, nameOffset);
+  }
+  _jtd_constructor_152_impl(String name, int nameOffset) {
+  }
+  ClassElement get enclosingElement => (super.enclosingElement as ClassElement);
   ElementKind get kind => ElementKind.METHOD;
   bool isAbstract() => hasModifier(Modifier.ABSTRACT);
   bool isStatic() => hasModifier(Modifier.STATIC);
   /**
    * Set whether this method is abstract to correspond to the given value.
    * @param isAbstract {@code true} if the method is abstract
    */
   void set abstract(bool isAbstract) {
     setModifier(Modifier.ABSTRACT, isAbstract);
   }
   /**
    * Set whether this method is static to correspond to the given value.
    * @param isStatic {@code true} if the method is static
    */
   void set static(bool isStatic) {
     setModifier(Modifier.STATIC, isStatic);
   }
-  String toString() {
-    StringBuffer builder = new StringBuffer();
-    builder.add("method ");
+  void appendTo(StringBuffer builder) {
     builder.add(enclosingElement.name);
     builder.add(".");
     builder.add(name);
-    builder.add(type);
-    return builder.toString();
+    super.appendTo(builder);
   }
 }
 /**
  * The enumeration {@code Modifier} defines constants for all of the modifiers defined by the Dart
- * language.
+ * language and for a few additional flags that are useful.
  */
 class Modifier {
   static final Modifier ABSTRACT = new Modifier('ABSTRACT', 0);
   static final Modifier CONST = new Modifier('CONST', 1);
   static final Modifier FACTORY = new Modifier('FACTORY', 2);
   static final Modifier FINAL = new Modifier('FINAL', 3);
   static final Modifier GETTER = new Modifier('GETTER', 4);
-  static final Modifier SETTER = new Modifier('SETTER', 5);
-  static final Modifier STATIC = new Modifier('STATIC', 6);
-  static final Modifier SYNTHETIC = new Modifier('SYNTHETIC', 7);
-  static final List<Modifier> values = [ABSTRACT, CONST, FACTORY, FINAL, GETTER, SETTER, STATIC, SYNTHETIC];
+  static final Modifier INITIALIZING_FORMAL = new Modifier('INITIALIZING_FORMAL', 5);
+  static final Modifier SETTER = new Modifier('SETTER', 6);
+  static final Modifier STATIC = new Modifier('STATIC', 7);
+  static final Modifier SYNTHETIC = new Modifier('SYNTHETIC', 8);
+  static final List<Modifier> values = [ABSTRACT, CONST, FACTORY, FINAL, GETTER, INITIALIZING_FORMAL, SETTER, STATIC, SYNTHETIC];
   final String __name;
   final int __ordinal;
   Modifier(this.__name, this.__ordinal) {
   }
   String toString() => __name;
 }
 /**
  * Instances of the class {@code MultiplyDefinedElementImpl} represent a collection of elements that
  * have the same name within the same scope.
  */
@@ skipping 23 matching lines @@
   Element getAncestor(Type elementClass) => null;
   List<Element> get conflictingElements => _conflictingElements;
   AnalysisContext get context => _context;
   Element get enclosingElement => null;
   ElementKind get kind => ElementKind.ERROR;
   LibraryElement get library => null;
   ElementLocation get location => null;
   List<Annotation> get metadata => AnnotationImpl.EMPTY_ARRAY;
   String get name => _name;
   int get nameOffset => -1;
+  Source get source => null;
+  bool isAccessibleIn(LibraryElement library) {
+    for (Element element in _conflictingElements) {
+      if (element.isAccessibleIn(library)) {
+        return true;
+      }
+    }
+    return false;
+  }
   bool isSynthetic() => true;
+  String toString() {
+    StringBuffer builder = new StringBuffer();
+    builder.add("[");
+    int count = _conflictingElements.length;
+    for (int i = 0; i < count; i++) {
+      if (i > 0) {
+        builder.add(", ");
+      }
+      ((_conflictingElements[i] as ElementImpl)).appendTo(builder);
+    }
+    builder.add("]");
+    return builder.toString();
+  }
   /**
    * Add the given element to the list of elements. If the element is a multiply-defined element,
    * add all of the conflicting elements that it represents.
    * @param elements the list to which the element(s) are to be added
    * @param element the element(s) to be added
    */
   void add(List<Element> elements, Element element) {
     if (element is MultiplyDefinedElementImpl) {
-      for (Element conflictingElement in (element as MultiplyDefinedElementImpl)._conflictingElements) {
+      for (Element conflictingElement in ((element as MultiplyDefinedElementImpl))._conflictingElements) {
         elements.add(conflictingElement);
       }
     } else {
       elements.add(element);
     }
   }
   /**
    * Use the given elements to construct an array of conflicting elements. If either of the given
    * elements are multiply-defined elements then the conflicting elements they represent will be
    * included in the array. Otherwise, the element itself will be included.
@@ skipping 21 matching lines @@
    */
   static List<ParameterElement> EMPTY_ARRAY = new List<ParameterElement>.fixedLength(0);
   /**
    * Initialize a newly created parameter element to have the given name.
    * @param name the name of this element
    */
   ParameterElementImpl(Identifier name) : super.con1(name) {
   }
   ElementKind get kind => ElementKind.PARAMETER;
   ParameterKind get parameterKind => _parameterKind;
+  bool isInitializingFormal() => hasModifier(Modifier.INITIALIZING_FORMAL);
+  /**
+   * Set whether this parameter is an initializing formal parameter to match the given value.
+   * @param isInitializingFormal {@code true} if this parameter is an initializing formal parameter
+   */
+  void set initializingFormal(bool isInitializingFormal) {
+    setModifier(Modifier.INITIALIZING_FORMAL, isInitializingFormal);
+  }
   /**
    * Set the kind of this parameter to the given kind.
    * @param parameterKind the new kind of this parameter
    */
-  void set parameterKind2(ParameterKind parameterKind) {
-    this._parameterKind = parameterKind;
+  void set parameterKind(ParameterKind parameterKind2) {
+    this._parameterKind = parameterKind2;
   }
-  String toString() => "parameter ${type} ${name} (${kind})";
+  void appendTo(StringBuffer builder) {
+    builder.add(type);
+    builder.add(" ");
+    builder.add(name);
+    builder.add(" (");
+    builder.add(kind);
+    builder.add(")");
+  }
 }
 /**
  * Instances of the class {@code PrefixElementImpl} implement a {@code PrefixElement}.
  */
 class PrefixElementImpl extends ElementImpl implements PrefixElement {
   /**
    * An array containing all of the libraries that are imported using this prefix.
    */
   List<LibraryElement> _importedLibraries = LibraryElementImpl.EMPTY_ARRAY;
   /**
    * An empty array of prefix elements.
    */
   static List<PrefixElement> EMPTY_ARRAY = new List<PrefixElement>.fixedLength(0);
   /**
    * Initialize a newly created prefix element to have the given name.
    * @param name the name of this element
    */
   PrefixElementImpl(Identifier name) : super.con1(name) {
   }
-  LibraryElement get enclosingElement => super.enclosingElement as LibraryElement;
+  LibraryElement get enclosingElement => (super.enclosingElement as LibraryElement);
   List<LibraryElement> get importedLibraries => _importedLibraries;
   ElementKind get kind => ElementKind.PREFIX;
   /**
    * Set the libraries that are imported using this prefix to the given libraries.
    * @param importedLibraries the libraries that are imported using this prefix
    */
-  void set importedLibraries2(List<LibraryElement> importedLibraries) {
-    for (LibraryElement library in importedLibraries) {
-      (library as LibraryElementImpl).enclosingElement2 = this;
+  void set importedLibraries(List<LibraryElement> importedLibraries2) {
+    for (LibraryElement library in importedLibraries2) {
+      ((library as LibraryElementImpl)).enclosingElement = this;
     }
-    this._importedLibraries = importedLibraries;
+    this._importedLibraries = importedLibraries2;
+  }
+  void appendTo(StringBuffer builder) {
+    builder.add("as ");
+    super.appendTo(builder);
   }
 }
 /**
  * Instances of the class {@code PropertyAccessorElementImpl} implement a{@code PropertyAccessorElement}.
  */
 class PropertyAccessorElementImpl extends ExecutableElementImpl implements PropertyAccessorElement {
   /**
    * The field associated with this accessor.
    */
   FieldElement _field;
   /**
    * An empty array of property accessor elements.
    */
   static List<PropertyAccessorElement> EMPTY_ARRAY = new List<PropertyAccessorElement>.fixedLength(0);
   /**
    * Initialize a newly created synthetic property accessor element to be associated with the given
    * field.
    * @param name the name of this element
    */
-  PropertyAccessorElementImpl.con1(FieldElementImpl field) : super.con2(field.name, -1) {
-    _jtd_constructor_150_impl(field);
+  PropertyAccessorElementImpl.con1(FieldElementImpl field2) : super.con2(field2.name, -1) {
+    _jtd_constructor_157_impl(field2);
   }
-  _jtd_constructor_150_impl(FieldElementImpl field) {
-    this._field = field;
+  _jtd_constructor_157_impl(FieldElementImpl field2) {
+    this._field = field2;
     synthetic = true;
   }
   /**
    * Initialize a newly created property accessor element to have the given name.
    * @param name the name of this element
    */
   PropertyAccessorElementImpl.con2(Identifier name) : super.con1(name) {
-    _jtd_constructor_151_impl(name);
+    _jtd_constructor_158_impl(name);
   }
-  _jtd_constructor_151_impl(Identifier name) {
+  _jtd_constructor_158_impl(Identifier name) {
   }
   FieldElement get field => _field;
   ElementKind get kind {
     if (isGetter()) {
       return ElementKind.GETTER;
     }
     return ElementKind.SETTER;
   }
   bool isGetter() => hasModifier(Modifier.GETTER);
   bool isSetter() => hasModifier(Modifier.SETTER);
   /**
    * Set the field associated with this accessor to the given field.
    * @param field the field associated with this accessor
    */
-  void set field2(FieldElement field) {
-    this._field = field;
+  void set field(FieldElement field3) {
+    this._field = field3;
   }
   /**
    * Set whether this accessor is a getter to correspond to the given value.
    * @param isGetter {@code true} if the accessor is a getter
    */
   void set getter(bool isGetter) {
     setModifier(Modifier.GETTER, isGetter);
   }
   /**
    * Set whether this accessor is a setter to correspond to the given value.
    * @param isSetter {@code true} if the accessor is a setter
    */
   void set setter(bool isSetter) {
     setModifier(Modifier.SETTER, isSetter);
   }
+  void appendTo(StringBuffer builder) {
+    builder.add(isGetter() ? "get " : "set ");
+    builder.add(field.name);
+    super.appendTo(builder);
+  }
 }
 /**
  * Instances of the class {@code ShowCombinatorImpl} implement a {@link ShowCombinator}.
  */
 class ShowCombinatorImpl implements ShowCombinator {
   /**
    * The names that are to be made visible in the importing library if they are defined in the
    * imported library.
    */
   List<String> _shownNames = StringUtilities.EMPTY_ARRAY;
   /**
    * Initialize a newly created combinator.
    */
   ShowCombinatorImpl() : super() {
   }
   List<String> get shownNames => _shownNames;
   /**
    * Set the names that are to be made visible in the importing library if they are defined in the
    * imported library to the given names.
    * @param shownNames the names that are to be made visible in the importing library
    */
-  void set shownNames2(List<String> shownNames) {
-    this._shownNames = shownNames;
+  void set shownNames(List<String> shownNames2) {
+    this._shownNames = shownNames2;
+  }
+  String toString() {
+    StringBuffer builder = new StringBuffer();
+    builder.add("show ");
+    int count = _shownNames.length;
+    for (int i = 0; i < count; i++) {
+      if (i > 0) {
+        builder.add(", ");
+      }
+      builder.add(_shownNames[i]);
+    }
+    return builder.toString();
   }
 }
 /**
  * Instances of the class {@code TypeAliasElementImpl} implement a {@code TypeAliasElement}.
  */
 class TypeAliasElementImpl extends ElementImpl implements TypeAliasElement {
   /**
    * An array containing all of the parameters defined by this type alias.
    */
   List<ParameterElement> _parameters = ParameterElementImpl.EMPTY_ARRAY;
   /**
    * The type of function defined by this type alias.
    */
   FunctionType _type;
   /**
    * An array containing all of the type variables defined for this type.
    */
   List<TypeVariableElement> _typeVariables = TypeVariableElementImpl.EMPTY_ARRAY;
   /**
    * An empty array of type alias elements.
    */
   static List<TypeAliasElement> EMPTY_ARRAY = new List<TypeAliasElement>.fixedLength(0);
   /**
    * Initialize a newly created type alias element to have the given name.
    * @param name the name of this element
    */
   TypeAliasElementImpl(Identifier name) : super.con1(name) {
   }
-  ElementImpl getChild(String identifier) {
+  ElementImpl getChild(String identifier23) {
     for (VariableElement parameter in _parameters) {
-      if ((parameter as VariableElementImpl).identifier == identifier) {
-        return parameter as VariableElementImpl;
+      if (((parameter as VariableElementImpl)).identifier == identifier23) {
+        return (parameter as VariableElementImpl);
       }
     }
     for (TypeVariableElement typeVariable in _typeVariables) {
-      if ((typeVariable as TypeVariableElementImpl).identifier == identifier) {
-        return typeVariable as TypeVariableElementImpl;
+      if (((typeVariable as TypeVariableElementImpl)).identifier == identifier23) {
+        return (typeVariable as TypeVariableElementImpl);
       }
     }
     return null;
   }
-  CompilationUnitElement get enclosingElement => super.enclosingElement as CompilationUnitElement;
+  CompilationUnitElement get enclosingElement => (super.enclosingElement as CompilationUnitElement);
   ElementKind get kind => ElementKind.TYPE_ALIAS;
   List<ParameterElement> get parameters => _parameters;
   FunctionType get type => _type;
   List<TypeVariableElement> get typeVariables => _typeVariables;
   /**
    * Set the parameters defined by this type alias to the given parameters.
    * @param parameters the parameters defined by this type alias
    */
-  void set parameters8(List<ParameterElement> parameters) {
-    if (parameters != null) {
-      for (ParameterElement parameter in parameters) {
-        (parameter as ParameterElementImpl).enclosingElement2 = this;
+  void set parameters(List<ParameterElement> parameters8) {
+    if (parameters8 != null) {
+      for (ParameterElement parameter in parameters8) {
+        ((parameter as ParameterElementImpl)).enclosingElement = this;
       }
     }
-    this._parameters = parameters;
+    this._parameters = parameters8;
   }
   /**
    * Set the type of function defined by this type alias to the given type.
    * @param type the type of function defined by this type alias
    */
-  void set type12(FunctionType type) {
-    this._type = type;
+  void set type(FunctionType type7) {
+    this._type = type7;
   }
   /**
    * Set the type variables defined for this type to the given variables.
    * @param typeVariables the type variables defined for this type
    */
-  void set typeVariables3(List<TypeVariableElement> typeVariables) {
-    for (TypeVariableElement variable in typeVariables) {
-      (variable as TypeVariableElementImpl).enclosingElement2 = this;
+  void set typeVariables(List<TypeVariableElement> typeVariables3) {
+    for (TypeVariableElement variable in typeVariables3) {
+      ((variable as TypeVariableElementImpl)).enclosingElement = this;
     }
-    this._typeVariables = typeVariables;
+    this._typeVariables = typeVariables3;
+  }
+  void appendTo(StringBuffer builder) {
+    builder.add("typedef ");
+    builder.add(name);
+    int variableCount = _typeVariables.length;
+    if (variableCount > 0) {
+      builder.add("<");
+      for (int i = 0; i < variableCount; i++) {
+        if (i > 0) {
+          builder.add(", ");
+        }
+        ((_typeVariables[i] as TypeVariableElementImpl)).appendTo(builder);
+      }
+      builder.add(">");
+    }
+    builder.add("(");
+    int parameterCount = _parameters.length;
+    for (int i = 0; i < parameterCount; i++) {
+      if (i > 0) {
+        builder.add(", ");
+      }
+      ((_parameters[i] as ParameterElementImpl)).appendTo(builder);
+    }
+    builder.add(")");
+    if (_type != null) {
+      builder.add(" -> ");
+      builder.add(_type.returnType);
+    }
   }
 }
 /**
  * Instances of the class {@code TypeVariableElementImpl} implement a {@code TypeVariableElement}.
  */
 class TypeVariableElementImpl extends ElementImpl implements TypeVariableElement {
   /**
    * The type defined by this type variable.
    */
   TypeVariableType _type;
@@ skipping 12 matching lines @@
    */
   TypeVariableElementImpl(Identifier name) : super.con1(name) {
   }
   Type2 get bound => _bound;
   ElementKind get kind => ElementKind.TYPE_VARIABLE;
   TypeVariableType get type => _type;
   /**
    * Set the type representing the bound associated with this variable to the given type.
    * @param bound the type representing the bound associated with this variable
    */
-  void set bound3(Type2 bound) {
-    this._bound = bound;
+  void set bound(Type2 bound2) {
+    this._bound = bound2;
   }
   /**
    * Set the type defined by this type variable to the given type
    * @param type the type defined by this type variable
    */
-  void set type13(TypeVariableType type) {
-    this._type = type;
+  void set type(TypeVariableType type8) {
+    this._type = type8;
+  }
+  void appendTo(StringBuffer builder) {
+    builder.add(name);
+    if (_bound != null) {
+      builder.add(" extends ");
+      builder.add(_bound);
+    }
   }
 }
 /**
  * Instances of the class {@code VariableElementImpl} implement a {@code VariableElement}.
  */
 class VariableElementImpl extends ElementImpl implements VariableElement {
   /**
    * The declared type of this variable.
    */
   Type2 _type;
   /**
    * A synthetic function representing this variable's initializer, or {@code null} if this variable
    * does not have an initializer.
    */
   FunctionElement _initializer;
   /**
+   * The offset to the beginning of the visible range for this element.
+   */
+  int _visibleRangeOffset = 0;
+  /**
+   * The length of the visible range for this element, or {@code -1} if this element does not have a
+   * visible range.
+   */
+  int _visibleRangeLength = -1;
+  /**
    * An empty array of variable elements.
    */
   static List<VariableElement> EMPTY_ARRAY = new List<VariableElement>.fixedLength(0);
   /**
    * Initialize a newly created variable element to have the given name.
    * @param name the name of this element
    */
   VariableElementImpl.con1(Identifier name) : super.con1(name) {
-    _jtd_constructor_155_impl(name);
+    _jtd_constructor_162_impl(name);
   }
-  _jtd_constructor_155_impl(Identifier name) {
+  _jtd_constructor_162_impl(Identifier name) {
   }
   /**
    * Initialize a newly created variable element to have the given name.
    * @param name the name of this element
    * @param nameOffset the offset of the name of this element in the file that contains the
    * declaration of this element
    */
   VariableElementImpl.con2(String name, int nameOffset) : super.con2(name, nameOffset) {
-    _jtd_constructor_156_impl(name, nameOffset);
+    _jtd_constructor_163_impl(name, nameOffset);
   }
-  _jtd_constructor_156_impl(String name, int nameOffset) {
+  _jtd_constructor_163_impl(String name, int nameOffset) {
   }
   FunctionElement get initializer => _initializer;
   ElementKind get kind => ElementKind.VARIABLE;
   Type2 get type => _type;
+  SourceRange get visibleRange {
+    if (_visibleRangeLength < 0) {
+      return null;
+    }
+    return new SourceRange(_visibleRangeOffset, _visibleRangeLength);
+  }
   bool isConst() => hasModifier(Modifier.CONST);
   bool isFinal() => hasModifier(Modifier.FINAL);
   /**
    * Set whether this variable is const to correspond to the given value.
    * @param isConst {@code true} if the variable is const
    */
   void set const2(bool isConst) {
     setModifier(Modifier.CONST, isConst);
   }
   /**
    * Set whether this variable is final to correspond to the given value.
    * @param isFinal {@code true} if the variable is final
    */
   void set final2(bool isFinal) {
     setModifier(Modifier.FINAL, isFinal);
   }
   /**
    * Set the function representing this variable's initializer to the given function.
    * @param initializer the function representing this variable's initializer
    */
-  void set initializer3(FunctionElement initializer) {
-    if (initializer != null) {
-      (initializer as FunctionElementImpl).enclosingElement2 = this;
+  void set initializer(FunctionElement initializer3) {
+    if (initializer3 != null) {
+      ((initializer3 as FunctionElementImpl)).enclosingElement = this;
     }
-    this._initializer = initializer;
+    this._initializer = initializer3;
   }
   /**
    * Set the declared type of this variable to the given type.
    * @param type the declared type of this variable
    */
-  void set type14(Type2 type) {
-    this._type = type;
+  void set type(Type2 type9) {
+    this._type = type9;
   }
-  String toString() => "variable ${type} ${name}";
+  /**
+   * Set the visible range for this element to the range starting at the given offset with the given
+   * length.
+   * @param offset the offset to the beginning of the visible range for this element
+   * @param length the length of the visible range for this element, or {@code -1} if this element
+   * does not have a visible range
+   */
+  void setVisibleRange(int offset, int length) {
+    _visibleRangeOffset = offset;
+    _visibleRangeLength = length;
+  }
+  void appendTo(StringBuffer builder) {
+    builder.add(type);
+    builder.add(" ");
+    builder.add(name);
+  }
 }
 /**
  * The unique instance of the class {@code BottomTypeImpl} implements the type {@code bottom}.
  */
 class BottomTypeImpl extends TypeImpl {
   /**
    * The unique instance of this class.
    */
   static BottomTypeImpl _INSTANCE = new BottomTypeImpl();
   /**
    * Return the unique instance of this class.
    * @return the unique instance of this class
    */
   static BottomTypeImpl get instance => _INSTANCE;
   /**
    * Prevent the creation of instances of this class.
    */
   BottomTypeImpl() : super(null, "<bottom>") {
   }
-  bool operator ==(Object object) => object == this;
+  bool operator ==(Object object) => identical(object, this);
   bool isMoreSpecificThan(Type2 type) => true;
   bool isSubtypeOf(Type2 type) => true;
   bool isSupertypeOf(Type2 type) => false;
   BottomTypeImpl substitute2(List<Type2> argumentTypes, List<Type2> parameterTypes) => this;
 }
 /**
  * The unique instance of the class {@code DynamicTypeImpl} implements the type {@code dynamic}.
  */
 class DynamicTypeImpl extends TypeImpl {
   /**
    * The unique instance of this class.
    */
   static DynamicTypeImpl _INSTANCE = new DynamicTypeImpl();
   /**
    * Return the unique instance of this class.
    * @return the unique instance of this class
    */
   static DynamicTypeImpl get instance => _INSTANCE;
   /**
    * Prevent the creation of instances of this class.
    */
   DynamicTypeImpl() : super(new DynamicElementImpl(), Keyword.DYNAMIC.syntax) {
-    (element as DynamicElementImpl).type10 = this;
+    ((element as DynamicElementImpl)).type = this;
   }
   bool operator ==(Object object) => object is DynamicTypeImpl;
   bool isMoreSpecificThan(Type2 type) => false;
   bool isSubtypeOf(Type2 type) => false;
   bool isSupertypeOf(Type2 type) => true;
   DynamicTypeImpl substitute2(List<Type2> argumentTypes, List<Type2> parameterTypes) => this;
 }
 /**
  * Instances of the class {@code FunctionTypeImpl} defines the behavior common to objects
  * representing the type of a function, method, constructor, getter, or setter.
  */
 class FunctionTypeImpl extends TypeImpl implements FunctionType {
   /**
    * Return {@code true} if all of the types in the first array are equal to the corresponding types
    * in the second array.
    * @param firstTypes the first array of types being compared
    * @param secondTypes the second array of types being compared
    * @return {@code true} if all of the types in the first array are equal to the corresponding
    * types in the second array
    */
   static bool equals2(LinkedHashMap<String, Type2> firstTypes, LinkedHashMap<String, Type2> secondTypes) {
     if (secondTypes.length != firstTypes.length) {
       return false;
     }
-    HasNextIterator<MapEntry<String, Type2>> firstIterator = new HasNextIterator(getMapEntrySet(firstTypes).iterator);
-    HasNextIterator<MapEntry<String, Type2>> secondIterator = new HasNextIterator(getMapEntrySet(firstTypes).iterator);
+    JavaIterator<MapEntry<String, Type2>> firstIterator = new JavaIterator(getMapEntrySet(firstTypes));
+    JavaIterator<MapEntry<String, Type2>> secondIterator = new JavaIterator(getMapEntrySet(firstTypes));
     while (firstIterator.hasNext) {
       MapEntry<String, Type2> firstEntry = firstIterator.next();
       MapEntry<String, Type2> secondEntry = secondIterator.next();
       if (firstEntry.getKey() != secondEntry.getKey() || firstEntry.getValue() != secondEntry.getValue()) {
         return false;
       }
     }
     return true;
   }
   /**
@@ skipping 35 matching lines @@
   /**
    * The type of object returned by this type of function.
    */
   Type2 _returnType = VoidTypeImpl.instance;
   /**
    * Initialize a newly created function type to be declared by the given element and to have the
    * given name.
    * @param element the element representing the declaration of the function type
    */
   FunctionTypeImpl.con1(ExecutableElement element) : super(element, element == null ? null : element.name) {
-    _jtd_constructor_200_impl(element);
+    _jtd_constructor_209_impl(element);
   }
-  _jtd_constructor_200_impl(ExecutableElement element) {
+  _jtd_constructor_209_impl(ExecutableElement element) {
   }
   /**
    * Initialize a newly created function type to be declared by the given element and to have the
    * given name.
    * @param element the element representing the declaration of the function type
    */
   FunctionTypeImpl.con2(TypeAliasElement element) : super(element, element == null ? null : element.name) {
-    _jtd_constructor_201_impl(element);
+    _jtd_constructor_210_impl(element);
   }
-  _jtd_constructor_201_impl(TypeAliasElement element) {
+  _jtd_constructor_210_impl(TypeAliasElement element) {
   }
   bool operator ==(Object object) {
     if (object is! FunctionTypeImpl) {
       return false;
     }
-    FunctionTypeImpl otherType = object as FunctionTypeImpl;
+    FunctionTypeImpl otherType = (object as FunctionTypeImpl);
     return element == otherType.element && JavaArrays.equals(_normalParameterTypes, otherType._normalParameterTypes) && JavaArrays.equals(_optionalParameterTypes, otherType._optionalParameterTypes) && equals2(_namedParameterTypes, otherType._namedParameterTypes);
   }
   Map<String, Type2> get namedParameterTypes => _namedParameterTypes;
   List<Type2> get normalParameterTypes => _normalParameterTypes;
   List<Type2> get optionalParameterTypes => _optionalParameterTypes;
   Type2 get returnType => _returnType;
   List<Type2> get typeArguments => _typeArguments;
   int get hashCode {
-    Element element29 = element;
-    if (element29 == null) {
+    Element element34 = element;
+    if (element34 == null) {
       return 0;
     }
-    return element29.hashCode;
+    return element34.hashCode;
   }
   bool isSubtypeOf(Type2 type) {
     if (type == null || type is! FunctionType) {
       return false;
-    } else if (this == type || this == type) {
+    } else if (identical(this, type) || this == type) {
       return true;
     }
     FunctionType t = this;
-    FunctionType s = type as FunctionType;
+    FunctionType s = (type as FunctionType);
     if (t.normalParameterTypes.length != s.normalParameterTypes.length) {
       return false;
     } else if (t.normalParameterTypes.length > 0) {
       List<Type2> tTypes = t.normalParameterTypes;
       List<Type2> sTypes = s.normalParameterTypes;
       for (int i = 0; i < tTypes.length; i++) {
         if (!tTypes[i].isAssignableTo(sTypes[i])) {
           return false;
         }
       }
@@ skipping 14 matching lines @@
       }
     } else if (s.optionalParameterTypes.length > 0) {
       return false;
     }
     if (t.namedParameterTypes.length > 0) {
       Map<String, Type2> namedTypesT = t.namedParameterTypes;
       Map<String, Type2> namedTypesS = s.namedParameterTypes;
       if (namedTypesT.length < namedTypesS.length) {
         return false;
       }
-      HasNextIterator<MapEntry<String, Type2>> iteratorS = new HasNextIterator(getMapEntrySet(namedTypesS).iterator);
+      JavaIterator<MapEntry<String, Type2>> iteratorS = new JavaIterator(getMapEntrySet(namedTypesS));
       while (iteratorS.hasNext) {
         MapEntry<String, Type2> entryS = iteratorS.next();
         Type2 typeT = namedTypesT[entryS.getKey()];
         if (typeT == null) {
           return false;
         }
         if (!entryS.getValue().isAssignableTo(typeT)) {
           return false;
         }
       }
     } else if (s.namedParameterTypes.length > 0) {
       return false;
     }
     return s.returnType == VoidTypeImpl.instance || t.returnType.isAssignableTo(s.returnType);
   }
   /**
    * Set the mapping of the names of named parameters to the types of the named parameters of this
    * type of function to the given mapping.
    * @param namedParameterTypes the mapping of the names of named parameters to the types of the
    * named parameters of this type of function
    */
-  void set namedParameterTypes2(LinkedHashMap<String, Type2> namedParameterTypes) {
-    this._namedParameterTypes = namedParameterTypes;
+  void set namedParameterTypes(LinkedHashMap<String, Type2> namedParameterTypes2) {
+    this._namedParameterTypes = namedParameterTypes2;
   }
   /**
    * Set the types of the normal parameters of this type of function to the types in the given
    * array.
    * @param normalParameterTypes the types of the normal parameters of this type of function
    */
-  void set normalParameterTypes2(List<Type2> normalParameterTypes) {
-    this._normalParameterTypes = normalParameterTypes;
+  void set normalParameterTypes(List<Type2> normalParameterTypes2) {
+    this._normalParameterTypes = normalParameterTypes2;
   }
   /**
    * Set the types of the optional parameters of this type of function to the types in the given
    * array.
    * @param optionalParameterTypes the types of the optional parameters of this type of function
    */
-  void set optionalParameterTypes2(List<Type2> optionalParameterTypes) {
-    this._optionalParameterTypes = optionalParameterTypes;
+  void set optionalParameterTypes(List<Type2> optionalParameterTypes2) {
+    this._optionalParameterTypes = optionalParameterTypes2;
   }
   /**
    * Set the type of object returned by this type of function to the given type.
    * @param returnType the type of object returned by this type of function
    */
-  void set returnType7(Type2 returnType) {
-    this._returnType = returnType;
+  void set returnType(Type2 returnType3) {
+    this._returnType = returnType3;
   }
   /**
    * Set the actual types of the type arguments to the given types.
    * @param typeArguments the actual types of the type arguments
    */
-  void set typeArguments4(List<Type2> typeArguments) {
-    this._typeArguments = typeArguments;
+  void set typeArguments(List<Type2> typeArguments4) {
+    this._typeArguments = typeArguments4;
   }
   FunctionTypeImpl substitute4(List<Type2> argumentTypes) => substitute2(argumentTypes, typeArguments);
   FunctionTypeImpl substitute2(List<Type2> argumentTypes, List<Type2> parameterTypes) {
     if (argumentTypes.length != parameterTypes.length) {
       throw new IllegalArgumentException("argumentTypes.length (${argumentTypes.length}) != parameterTypes.length (${parameterTypes.length})");
     }
     if (argumentTypes.length == 0) {
       return this;
     }
-    Element element30 = element;
-    FunctionTypeImpl newType = (element30 is ExecutableElement) ? new FunctionTypeImpl.con1(element30 as ExecutableElement) : new FunctionTypeImpl.con2(element30 as TypeAliasElement);
-    newType.returnType7 = _returnType.substitute2(argumentTypes, parameterTypes);
-    newType.normalParameterTypes2 = TypeImpl.substitute(_normalParameterTypes, argumentTypes, parameterTypes);
-    newType.optionalParameterTypes2 = TypeImpl.substitute(_optionalParameterTypes, argumentTypes, parameterTypes);
-    newType.namedParameterTypes2 = substitute3(_namedParameterTypes, argumentTypes, parameterTypes);
+    Element element35 = element;
+    FunctionTypeImpl newType = (element35 is ExecutableElement) ? new FunctionTypeImpl.con1((element35 as ExecutableElement)) : new FunctionTypeImpl.con2((element35 as TypeAliasElement));
+    newType.returnType = _returnType.substitute2(argumentTypes, parameterTypes);
+    newType.normalParameterTypes = TypeImpl.substitute(_normalParameterTypes, argumentTypes, parameterTypes);
+    newType.optionalParameterTypes = TypeImpl.substitute(_optionalParameterTypes, argumentTypes, parameterTypes);
+    newType.namedParameterTypes = substitute3(_namedParameterTypes, argumentTypes, parameterTypes);
     return newType;
   }
-  String toString() {
-    StringBuffer builder = new StringBuffer();
+  void appendTo(StringBuffer builder) {
     builder.add("(");
     bool needsComma = false;
     if (_normalParameterTypes.length > 0) {
       for (Type2 type in _normalParameterTypes) {
         if (needsComma) {
           builder.add(", ");
         } else {
           needsComma = true;
         }
-        builder.add(type);
+        ((type as TypeImpl)).appendTo(builder);
       }
     }
     if (_optionalParameterTypes.length > 0) {
       if (needsComma) {
         builder.add(", ");
         needsComma = false;
       }
       builder.add("[");
       for (Type2 type in _optionalParameterTypes) {
         if (needsComma) {
           builder.add(", ");
         } else {
           needsComma = true;
         }
-        builder.add(type);
+        ((type as TypeImpl)).appendTo(builder);
       }
       builder.add("]");
       needsComma = true;
     }
     if (_namedParameterTypes.length > 0) {
       if (needsComma) {
         builder.add(", ");
         needsComma = false;
       }
       builder.add("{");
       for (MapEntry<String, Type2> entry in getMapEntrySet(_namedParameterTypes)) {
         if (needsComma) {
           builder.add(", ");
         } else {
           needsComma = true;
         }
         builder.add(entry.getKey());
         builder.add(": ");
-        builder.add(entry.getValue());
+        ((entry.getValue() as TypeImpl)).appendTo(builder);
       }
       builder.add("}");
       needsComma = true;
     }
     builder.add(") -> ");
-    builder.add(_returnType);
-    return builder.toString();
+    ((_returnType as TypeImpl)).appendTo(builder);
   }
 }
 /**
  * Instances of the class {@code InterfaceTypeImpl} defines the behavior common to objects
  * representing the type introduced by either a class or an interface, or a reference to such a
  * type.
  */
 class InterfaceTypeImpl extends TypeImpl implements InterfaceType {
   /**
    * An empty array of types.
@@ skipping 50 matching lines @@
   /**
    * Returns the set of all superinterfaces of the passed {@link Type}. This is a recursive method,
    * callers should call the public {@link #computeSuperinterfaceSet(Type)}.
    * @param type the {@link Type} to compute the set of superinterfaces of
    * @param set a {@link HashSet} used recursively by this method
    * @return the {@link Set} of superinterfaces of the passed {@link Type}
    * @see #computeSuperinterfaceSet(Type)
    * @see #getLeastUpperBound(Type)
    */
   static Set<InterfaceType> computeSuperinterfaceSet2(InterfaceType type, Set<InterfaceType> set) {
-    Element element31 = type.element;
-    if (element31 != null && element31 is ClassElement) {
-      ClassElement classElement = element31 as ClassElement;
+    Element element36 = type.element;
+    if (element36 != null && element36 is ClassElement) {
+      ClassElement classElement = (element36 as ClassElement);
       List<InterfaceType> superinterfaces = classElement.interfaces;
       for (InterfaceType superinterface in superinterfaces) {
         javaSetAdd(set, superinterface);
         computeSuperinterfaceSet2(superinterface, set);
       }
       InterfaceType supertype4 = classElement.supertype;
       if (supertype4 != null) {
         javaSetAdd(set, supertype4);
         computeSuperinterfaceSet2(supertype4, set);
       }
     }
     return set;
   }
   /**
    * An array containing the actual types of the type arguments.
    */
   List<Type2> _typeArguments = TypeImpl.EMPTY_ARRAY;
   /**
    * Initialize a newly created type to be declared by the given element.
    * @param element the element representing the declaration of the type
    */
   InterfaceTypeImpl.con1(ClassElement element) : super(element, element.name) {
-    _jtd_constructor_202_impl(element);
+    _jtd_constructor_211_impl(element);
   }
-  _jtd_constructor_202_impl(ClassElement element) {
+  _jtd_constructor_211_impl(ClassElement element) {
   }
   /**
    * Initialize a newly created type to have the given name. This constructor should only be used in
    * cases where there is no declaration of the type.
    * @param name the name of the type
    */
   InterfaceTypeImpl.con2(String name) : super(null, name) {
-    _jtd_constructor_203_impl(name);
+    _jtd_constructor_212_impl(name);
   }
-  _jtd_constructor_203_impl(String name) {
+  _jtd_constructor_212_impl(String name) {
   }
   bool operator ==(Object object) {
     if (object is! InterfaceTypeImpl) {
       return false;
     }
-    InterfaceTypeImpl otherType = object as InterfaceTypeImpl;
+    InterfaceTypeImpl otherType = (object as InterfaceTypeImpl);
     return element == otherType.element && JavaArrays.equals(_typeArguments, otherType._typeArguments);
   }
-  ClassElement get element => super.element as ClassElement;
+  ClassElement get element => (super.element as ClassElement);
   Type2 getLeastUpperBound(Type2 type) {
     Type2 dynamicType = DynamicTypeImpl.instance;
-    if (this == dynamicType || type == dynamicType) {
+    if (identical(this, dynamicType) || identical(type, dynamicType)) {
       return dynamicType;
     }
     if (type == null || type is! InterfaceType) {
       return null;
     }
     InterfaceType i = this;
-    InterfaceType j = type as InterfaceType;
+    InterfaceType j = (type as InterfaceType);
     Set<InterfaceType> si = computeSuperinterfaceSet(i);
     Set<InterfaceType> sj = computeSuperinterfaceSet(j);
     javaSetAdd(si, i);
     javaSetAdd(sj, j);
     si.retainAll(sj);
     Set<InterfaceType> s = si;
     List<InterfaceType> sn = new List.from(s);
     List<int> depths = new List<int>.fixedLength(sn.length);
     int maxDepth = 0;
     for (int n = 0; n < sn.length; n++) {
@@ skipping 16 matching lines @@
       }
     }
     return null;
   }
   Type2 get superclass {
     ClassElement classElement = element;
     return element.supertype.substitute2(_typeArguments, TypeVariableTypeImpl.getTypes(classElement.typeVariables));
   }
   List<Type2> get typeArguments => _typeArguments;
   int get hashCode {
-    ClassElement element32 = element;
-    if (element32 == null) {
+    ClassElement element37 = element;
+    if (element37 == null) {
       return 0;
     }
-    return element32.hashCode;
+    return element37.hashCode;
   }
   bool isDirectSupertypeOf(InterfaceType type) {
     ClassElement i = element;
     ClassElement j = type.element;
-    Type2 supertype5 = j.supertype;
+    InterfaceType supertype5 = j.supertype;
     if (supertype5 == null) {
       return false;
     }
-    ClassElement supertypeElement = supertype5.element as ClassElement;
+    ClassElement supertypeElement = supertype5.element;
     if (supertypeElement == i) {
       return true;
     }
-    for (Type2 interfaceType in j.interfaces) {
-      if (interfaceType == i) {
+    for (InterfaceType interfaceType in j.interfaces) {
+      if (interfaceType.element == i) {
         return true;
       }
     }
-    for (Type2 mixinType in j.mixins) {
-      if (mixinType == i) {
+    for (InterfaceType mixinType in j.mixins) {
+      if (mixinType.element == i) {
         return true;
       }
     }
     return false;
   }
   bool isMoreSpecificThan(Type2 type) {
-    if (type == DynamicTypeImpl.instance) {
+    if (identical(type, DynamicTypeImpl.instance)) {
       return true;
     } else if (type is! InterfaceType) {
       return false;
     }
-    InterfaceType s = type as InterfaceType;
+    InterfaceType s = (type as InterfaceType);
     if (this == s) {
       return true;
     }
     if (s.isDirectSupertypeOf(this)) {
       return true;
     }
     ClassElement tElement = element;
     ClassElement sElement = s.element;
     if (tElement == sElement) {
       List<Type2> tArguments = typeArguments;
       List<Type2> sArguments = s.typeArguments;
       if (tArguments.length != sArguments.length) {
         return false;
       }
       for (int i = 0; i < tArguments.length; i++) {
         if (!tArguments[i].isMoreSpecificThan(sArguments[i])) {
           return false;
         }
       }
       return true;
     }
     if (element.supertype == null) {
       return false;
     }
     return element.supertype.isMoreSpecificThan(type);
   }
   bool isSubtypeOf(Type2 type) {
-    if (type == DynamicTypeImpl.instance) {
+    if (identical(type, DynamicTypeImpl.instance)) {
       return true;
     } else if (type is TypeVariableType) {
       return true;
     } else if (type is! InterfaceType) {
       return false;
     } else if (this == type) {
       return true;
     }
     InterfaceType typeT = this;
-    InterfaceType typeS = type as InterfaceType;
+    InterfaceType typeS = (type as InterfaceType);
     ClassElement elementT = element;
     if (elementT == null) {
       return false;
     }
     typeT = substitute2(_typeArguments, TypeVariableTypeImpl.getTypes(elementT.typeVariables));
     if (typeT == typeS) {
       return true;
     } else if (elementT == typeS.element) {
       List<Type2> typeTArgs = typeT.typeArguments;
       List<Type2> typeSArgs = typeS.typeArguments;
@@ skipping 22 matching lines @@
       if (mixinType == typeS) {
         return true;
       }
     }
     return supertype6.isSubtypeOf(typeS);
   }
   /**
    * Set the actual types of the type arguments to those in the given array.
    * @param typeArguments the actual types of the type arguments
    */
-  void set typeArguments5(List<Type2> typeArguments) {
-    this._typeArguments = typeArguments;
+  void set typeArguments(List<Type2> typeArguments5) {
+    this._typeArguments = typeArguments5;
   }
   InterfaceTypeImpl substitute5(List<Type2> argumentTypes) => substitute2(argumentTypes, typeArguments);
   InterfaceTypeImpl substitute2(List<Type2> argumentTypes, List<Type2> parameterTypes) {
     if (argumentTypes.length != parameterTypes.length) {
       throw new IllegalArgumentException("argumentTypes.length (${argumentTypes.length}) != parameterTypes.length (${parameterTypes.length})");
     }
     if (argumentTypes.length == 0) {
       return this;
     }
     InterfaceTypeImpl newType = new InterfaceTypeImpl.con1(element);
-    newType.typeArguments5 = TypeImpl.substitute(_typeArguments, argumentTypes, parameterTypes);
+    newType.typeArguments = TypeImpl.substitute(_typeArguments, argumentTypes, parameterTypes);
     return newType;
   }
+  void appendTo(StringBuffer builder) {
+    builder.add(name);
+    int argumentCount = _typeArguments.length;
+    if (argumentCount > 0) {
+      builder.add("<");
+      for (int i = 0; i < argumentCount; i++) {
+        if (i > 0) {
+          builder.add(", ");
+        }
+        ((_typeArguments[i] as TypeImpl)).appendTo(builder);
+      }
+      builder.add(">");
+    }
+  }
 }
 /**
  * The abstract class {@code TypeImpl} implements the behavior common to objects representing the
  * declared type of elements in the element model.
  */
 abstract class TypeImpl implements Type2 {
   /**
    * Return an array containing the results of using the given argument types and parameter types to
    * perform a substitution on all of the given types.
    * @param types the types on which a substitution is to be performed
@@ skipping 30 matching lines @@
   TypeImpl(Element element, String name) {
     this._element = element;
     this._name = name;
   }
   Element get element => _element;
   Type2 getLeastUpperBound(Type2 type) => null;
   String get name => _name;
   bool isAssignableTo(Type2 type) => this.isSubtypeOf(type) || type.isSubtypeOf(this);
   bool isMoreSpecificThan(Type2 type) => false;
   bool isSupertypeOf(Type2 type) => type.isSubtypeOf(this);
-  String toString() => _name == null ? "<unnamed type>" : "type ${_name}";
+  String toString() {
+    StringBuffer builder = new StringBuffer();
+    appendTo(builder);
+    return builder.toString();
+  }
+  /**
+   * Append a textual representation of this type to the given builder.
+   * @param builder the builder to which the text is to be appended
+   */
+  void appendTo(StringBuffer builder) {
+    if (_name == null) {
+      builder.add("<unnamed type>");
+    } else {
+      builder.add(_name);
+    }
+  }
 }
 /**
  * Instances of the class {@code TypeVariableTypeImpl} defines the behavior of objects representing
  * the type introduced by a type variable.
  */
 class TypeVariableTypeImpl extends TypeImpl implements TypeVariableType {
   /**
    * Return an array containing the type variable types defined by the given array of type variable
    * elements.
    * @param typeVariables the type variable elements defining the type variable types to be returned
    * @return the type variable types defined by the type variable elements
    */
   static List<TypeVariableType> getTypes(List<TypeVariableElement> typeVariables) {
     int count = typeVariables.length;
     List<TypeVariableType> types = new List<TypeVariableType>.fixedLength(count);
     for (int i = 0; i < count; i++) {
       types[i] = typeVariables[i].type;
     }
     return types;
   }
   /**
    * Initialize a newly created type variable to be declared by the given element and to have the
    * given name.
    * @param element the element representing the declaration of the type variable
    */
   TypeVariableTypeImpl(TypeVariableElement element) : super(element, element.name) {
   }
-  bool operator ==(Object object) => object is TypeVariableTypeImpl && element == (object as TypeVariableTypeImpl).element;
-  TypeVariableElement get element => super.element as TypeVariableElement;
+  bool operator ==(Object object) => object is TypeVariableTypeImpl && element == ((object as TypeVariableTypeImpl)).element;
+  TypeVariableElement get element => (super.element as TypeVariableElement);
   int get hashCode => element.hashCode;
   bool isMoreSpecificThan(Type2 type) {
     Type2 upperBound = element.bound;
     return type == upperBound;
   }
   bool isSubtypeOf(Type2 type) => true;
   Type2 substitute2(List<Type2> argumentTypes, List<Type2> parameterTypes) {
     int length7 = parameterTypes.length;
     for (int i = 0; i < length7; i++) {
       if (parameterTypes[i] == this) {
@@ skipping 14 matching lines @@
   /**
    * Return the unique instance of this class.
    * @return the unique instance of this class
    */
   static VoidTypeImpl get instance => _INSTANCE;
   /**
    * Prevent the creation of instances of this class.
    */
   VoidTypeImpl() : super(null, Keyword.VOID.syntax) {
   }
-  bool operator ==(Object object) => object == this;
-  bool isSubtypeOf(Type2 type) => type == this || type == DynamicTypeImpl.instance;
+  bool operator ==(Object object) => identical(object, this);
+  bool isSubtypeOf(Type2 type) => identical(type, this) || identical(type, DynamicTypeImpl.instance);
   VoidTypeImpl substitute2(List<Type2> argumentTypes, List<Type2> parameterTypes) => this;
 }
 /**
  * The interface {@code FunctionType} defines the behavior common to objects representing the type
  * of a function, method, constructor, getter, or setter. Function types come in three variations:
  * <ol>
  * <li>The types of functions that only have required parameters. These have the general form
  * <i>(T<sub>1</sub>, &hellip;, T<sub>n</sub>) &rarr; T</i>.</li>
  * <li>The types of functions with optional positional parameters. These have the general form
  * <i>(T<sub>1</sub>, &hellip;, T<sub>n</sub>, [T<sub>n+1</sub>, &hellip;, T<sub>n+k</sub>]) &rarr;
@@ skipping 276 matching lines @@
  */
 abstract class TypeVariableType implements Type2 {
   TypeVariableElement get element;
 }
 /**
  * The interface {@code VoidType} defines the behavior of the unique object representing the type{@code void}.
  */
 abstract class VoidType implements Type2 {
   VoidType substitute2(List<Type2> argumentTypes, List<Type2> parameterTypes);
 }