Clean up references in comments

pkg/analyzer/lib/src/generated/error_verifier.dart

 // Copyright (c) 2014, the Dart project authors.  Please see the AUTHORS file
 // for details. All rights reserved. Use of this source code is governed by a
 // BSD-style license that can be found in the LICENSE file.
 
 library engine.resolver.error_verifier;
 
 import 'dart:collection';
 import "dart:math" as math;
 
 import 'java_engine.dart';
@@ skipping 72 matching lines @@
 
   /**
    * The manager for the inheritance mappings.
    */
   final InheritanceManager _inheritanceManager;
 
   /**
    * This is set to `true` iff the visitor is currently visiting children nodes of a
    * [ConstructorDeclaration] and the constructor is 'const'.
    *
-   * @see #visitConstructorDeclaration(ConstructorDeclaration)
+   * See [visitConstructorDeclaration].
    */
   bool _isEnclosingConstructorConst = false;
 
   /**
    * A flag indicating whether we are currently within a function body marked as being asynchronous.
    */
   bool _inAsync = false;
 
   /**
    * A flag indicating whether we are currently within a function body marked as being a generator.
    */
   bool _inGenerator = false;
 
   /**
    * This is set to `true` iff the visitor is currently visiting children nodes of a
    * [CatchClause].
    *
-   * @see #visitCatchClause(CatchClause)
+   * See [visitCatchClause].
    */
   bool _isInCatchClause = false;
 
   /**
    * This is set to `true` iff the visitor is currently visiting children nodes of an
    * [Comment].
    */
   bool _isInComment = false;
 
   /**
@@ skipping 58 matching lines @@
   /**
    * A flag indicating whether the current library contains at least one import directive with a URI
    * that uses the "dart-ext" scheme.
    */
   bool _hasExtUri = false;
 
   /**
    * This is set to `false` on the entry of every [BlockFunctionBody], and is restored
    * to the enclosing value on exit. The value is used in
    * [checkForMixedReturns] to prevent both
-   * [StaticWarningCode#MIXED_RETURN_TYPES] and [StaticWarningCode#RETURN_WITHOUT_VALUE]
+   * [StaticWarningCode.MIXED_RETURN_TYPES] and [StaticWarningCode.RETURN_WITHOUT_VALUE]
    * from being generated in the same function body.
    */
   bool _hasReturnWithoutValue = false;
 
   /**
    * The class containing the AST nodes being visited, or `null` if we are not in the scope of
    * a class.
    */
   ClassElement _enclosingClass;
 
@@ skipping 13 matching lines @@
    * The return statements found in the method or function that we are currently visiting that do
    * not have a return value.
    */
   List<ReturnStatement> _returnsWithout = new List<ReturnStatement>();
 
   /**
    * This map is initialized when visiting the contents of a class declaration. If the visitor is
    * not in an enclosing class declaration, then the map is set to `null`.
    *
    * When set the map maps the set of [FieldElement]s in the class to an
-   * [INIT_STATE#NOT_INIT] or [INIT_STATE#INIT_IN_DECLARATION]. <code>checkFor*</code>
+   * [INIT_STATE.NOT_INIT] or [INIT_STATE.INIT_IN_DECLARATION]. <code>checkFor*</code>
    * methods, specifically [checkForAllFinalInitializedErrorCodes],
    * can make a copy of the map to compute error code states. <code>checkFor*</code> methods should
    * only ever make a copy, or read from this map after it has been set in
    * [visitClassDeclaration].
    *
-   * @see #visitClassDeclaration(ClassDeclaration)
-   * @see #checkForAllFinalInitializedErrorCodes(ConstructorDeclaration)
+   * See [visitClassDeclaration], and [_checkForAllFinalInitializedErrorCodes].
    */
   HashMap<FieldElement, INIT_STATE> _initialFieldElementsMap;
 
   /**
    * A table mapping name of the library to the export directive which export this library.
    */
   HashMap<String, LibraryElement> _nameToExportElement = new HashMap<String, LibraryElement>();
 
   /**
    * A table mapping name of the library to the import directive which import this library.
    */
   HashMap<String, LibraryElement> _nameToImportElement = new HashMap<String, LibraryElement>();
 
   /**
    * A table mapping names to the exported elements.
    */
   HashMap<String, Element> _exportedElements = new HashMap<String, Element>();
 
   /**
    * A set of the names of the variable initializers we are visiting now.
    */
   HashSet<String> _namesForReferenceToDeclaredVariableInInitializer = new HashSet<String>();
 
   /**
-   * A list of types used by the [CompileTimeErrorCode#EXTENDS_DISALLOWED_CLASS] and
-   * [CompileTimeErrorCode#IMPLEMENTS_DISALLOWED_CLASS] error codes.
+   * A list of types used by the [CompileTimeErrorCode.EXTENDS_DISALLOWED_CLASS] and
+   * [CompileTimeErrorCode.IMPLEMENTS_DISALLOWED_CLASS] error codes.
    */
   List<InterfaceType> _DISALLOWED_TYPES_TO_EXTEND_OR_IMPLEMENT;
 
   /**
    * Static final string with value `"getter "` used in the construction of the
-   * [StaticWarningCode#NON_ABSTRACT_CLASS_INHERITS_ABSTRACT_MEMBER_ONE], and similar, error
+   * [StaticWarningCode.NON_ABSTRACT_CLASS_INHERITS_ABSTRACT_MEMBER_ONE], and similar, error
    * code messages.
    *
-   * @see #checkForNonAbstractClassInheritsAbstractMember(ClassDeclaration)
+   * See [_checkForNonAbstractClassInheritsAbstractMember].
    */
   static String _GETTER_SPACE = "getter ";
 
   /**
    * Static final string with value `"setter "` used in the construction of the
-   * [StaticWarningCode#NON_ABSTRACT_CLASS_INHERITS_ABSTRACT_MEMBER_ONE], and similar, error
+   * [StaticWarningCode.NON_ABSTRACT_CLASS_INHERITS_ABSTRACT_MEMBER_ONE], and similar, error
    * code messages.
    *
-   * @see #checkForNonAbstractClassInheritsAbstractMember(ClassDeclaration)
+   * See [_checkForNonAbstractClassInheritsAbstractMember].
    */
   static String _SETTER_SPACE = "setter ";
 
   /**
    * Initialize the [ErrorVerifier] visitor.
    */
   ErrorVerifier(this._errorReporter, this._currentLibrary, this._typeProvider, this._inheritanceManager) {
     this._isInSystemLibrary = _currentLibrary.source.isInSystemLibrary;
     this._hasExtUri = _currentLibrary.hasExtUri;
     _isEnclosingConstructorConst = false;
@@ skipping 776 matching lines @@
       _errorReporter.reportErrorForNode(errorCode, node, []);
     }
     return super.visitYieldStatement(node);
   }
 
   /**
    * This verifies if the passed map literal has type arguments then there is exactly two.
    *
    * @param typeArguments the type arguments, always non-`null`
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticTypeWarningCode#EXPECTED_TWO_MAP_TYPE_ARGUMENTS
+   * See [StaticTypeWarningCode.EXPECTED_TWO_MAP_TYPE_ARGUMENTS].
    */
   bool _checkExpectedTwoMapTypeArguments(TypeArgumentList typeArguments) {
     // check number of type arguments
     int num = typeArguments.arguments.length;
     if (num == 2) {
       return false;
     }
     // report problem
     _errorReporter.reportErrorForNode(StaticTypeWarningCode.EXPECTED_TWO_MAP_TYPE_ARGUMENTS, typeArguments, [num]);
     return true;
   }
 
   /**
    * This verifies that the passed constructor declaration does not violate any of the error codes
    * relating to the initialization of fields in the enclosing class.
    *
    * @param node the [ConstructorDeclaration] to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see #initialFieldElementsMap
-   * @see CompileTimeErrorCode#FINAL_INITIALIZED_IN_DECLARATION_AND_CONSTRUCTOR
-   * @see CompileTimeErrorCode#FINAL_INITIALIZED_MULTIPLE_TIMES
+   * See [_initialFieldElementsMap],
+   * [StaticWarningCode.FINAL_INITIALIZED_IN_DECLARATION_AND_CONSTRUCTOR],
+   * and [CompileTimeErrorCode.FINAL_INITIALIZED_MULTIPLE_TIMES].
    */
   bool _checkForAllFinalInitializedErrorCodes(ConstructorDeclaration node) {
     if (node.factoryKeyword != null || node.redirectedConstructor != null || node.externalKeyword != null) {
       return false;
     }
     // Ignore if native class.
     if (_isInNativeClass) {
       return false;
     }
     bool foundError = false;
@@ skipping 76 matching lines @@
   }
 
   /**
    * This checks the passed executable element against override-error codes.
    *
    * @param executableElement a non-null [ExecutableElement] to evaluate
    * @param overriddenExecutable the element that the executableElement is overriding
    * @param parameters the parameters of the executable element
    * @param errorNameTarget the node to report problems on
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticWarningCode#INSTANCE_METHOD_NAME_COLLIDES_WITH_SUPERCLASS_STATIC
-   * @see CompileTimeErrorCode#INVALID_OVERRIDE_REQUIRED
-   * @see CompileTimeErrorCode#INVALID_OVERRIDE_POSITIONAL
-   * @see CompileTimeErrorCode#INVALID_OVERRIDE_NAMED
-   * @see StaticWarningCode#INVALID_GETTER_OVERRIDE_RETURN_TYPE
-   * @see StaticWarningCode#INVALID_METHOD_OVERRIDE_RETURN_TYPE
-   * @see StaticWarningCode#INVALID_METHOD_OVERRIDE_NORMAL_PARAM_TYPE
-   * @see StaticWarningCode#INVALID_SETTER_OVERRIDE_NORMAL_PARAM_TYPE
-   * @see StaticWarningCode#INVALID_METHOD_OVERRIDE_OPTIONAL_PARAM_TYPE
-   * @see StaticWarningCode#INVALID_METHOD_OVERRIDE_NAMED_PARAM_TYPE
-   * @see StaticWarningCode#INVALID_OVERRIDE_DIFFERENT_DEFAULT_VALUES
+   * See [StaticWarningCode.INSTANCE_METHOD_NAME_COLLIDES_WITH_SUPERCLASS_STATIC],
+   * [CompileTimeErrorCode.INVALID_OVERRIDE_REQUIRED],
+   * [CompileTimeErrorCode.INVALID_OVERRIDE_POSITIONAL],
+   * [CompileTimeErrorCode.INVALID_OVERRIDE_NAMED],
+   * [StaticWarningCode.INVALID_GETTER_OVERRIDE_RETURN_TYPE],
+   * [StaticWarningCode.INVALID_METHOD_OVERRIDE_RETURN_TYPE],
+   * [StaticWarningCode.INVALID_METHOD_OVERRIDE_NORMAL_PARAM_TYPE],
+   * [StaticWarningCode.INVALID_SETTER_OVERRIDE_NORMAL_PARAM_TYPE],
+   * [StaticWarningCode.INVALID_METHOD_OVERRIDE_OPTIONAL_PARAM_TYPE],
+   * [StaticWarningCode.INVALID_METHOD_OVERRIDE_NAMED_PARAM_TYPE], and
+   * [StaticWarningCode.INVALID_OVERRIDE_DIFFERENT_DEFAULT_VALUES].
    */
   bool _checkForAllInvalidOverrideErrorCodes(ExecutableElement executableElement, ExecutableElement overriddenExecutable, List<ParameterElement> parameters, List<AstNode> parameterLocations, SimpleIdentifier errorNameTarget) {
     bool isGetter = false;
     bool isSetter = false;
     if (executableElement is PropertyAccessorElement) {
       PropertyAccessorElement accessorElement = executableElement;
       isGetter = accessorElement.isGetter;
       isSetter = accessorElement.isSetter;
     }
     String executableElementName = executableElement.name;
@@ skipping 227 matching lines @@
       }
     }
     return false;
   }
 
   /**
    * This checks the passed field declaration against override-error codes.
    *
    * @param node the [MethodDeclaration] to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see #checkForAllInvalidOverrideErrorCodes(ExecutableElement)
+   * See [_checkForAllInvalidOverrideErrorCodes].
    */
   bool _checkForAllInvalidOverrideErrorCodesForField(FieldDeclaration node) {
     if (_enclosingClass == null || node.isStatic) {
       return false;
     }
     bool hasProblems = false;
     VariableDeclarationList fields = node.fields;
     for (VariableDeclaration field in fields.variables) {
       FieldElement element = field.element as FieldElement;
       if (element == null) {
@@ skipping 22 matching lines @@
       }
     }
     return hasProblems;
   }
 
   /**
    * This checks the passed method declaration against override-error codes.
    *
    * @param node the [MethodDeclaration] to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see #checkForAllInvalidOverrideErrorCodes(ExecutableElement)
+   * See [_checkForAllInvalidOverrideErrorCodes].
    */
   bool _checkForAllInvalidOverrideErrorCodesForMethod(MethodDeclaration node) {
     if (_enclosingClass == null || node.isStatic || node.body is NativeFunctionBody) {
       return false;
     }
     ExecutableElement executableElement = node.element;
     if (executableElement == null) {
       return false;
     }
     SimpleIdentifier methodName = node.name;
     if (methodName.isSynthetic) {
       return false;
     }
     FormalParameterList formalParameterList = node.parameters;
     NodeList<FormalParameter> parameterList = formalParameterList != null ? formalParameterList.parameters : null;
     List<AstNode> parameters = parameterList != null ? new List.from(parameterList) : null;
     return _checkForAllInvalidOverrideErrorCodesForExecutable(executableElement, executableElement.parameters, parameters, methodName);
   }
 
   /**
    * This verifies that all classes of the passed 'with' clause are valid.
    *
    * @param node the 'with' clause to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#MIXIN_DECLARES_CONSTRUCTOR
-   * @see CompileTimeErrorCode#MIXIN_INHERITS_FROM_NOT_OBJECT
-   * @see CompileTimeErrorCode#MIXIN_REFERENCES_SUPER
+   * See [CompileTimeErrorCode.MIXIN_DECLARES_CONSTRUCTOR],
+   * [CompileTimeErrorCode.MIXIN_INHERITS_FROM_NOT_OBJECT], and
+   * [CompileTimeErrorCode.MIXIN_REFERENCES_SUPER].
    */
   bool _checkForAllMixinErrorCodes(WithClause withClause) {
     if (withClause == null) {
       return false;
     }
     bool problemReported = false;
     for (TypeName mixinName in withClause.mixinTypes) {
       DartType mixinType = mixinName.type;
       if (mixinType is! InterfaceType) {
         continue;
@@ skipping 21 matching lines @@
       }
     }
     return problemReported;
   }
 
   /**
    * This checks error related to the redirected constructors.
    *
    * @param node the constructor declaration to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticWarningCode#REDIRECT_TO_INVALID_RETURN_TYPE
-   * @see StaticWarningCode#REDIRECT_TO_INVALID_FUNCTION_TYPE
-   * @see StaticWarningCode#REDIRECT_TO_MISSING_CONSTRUCTOR
+   * See [StaticWarningCode.REDIRECT_TO_INVALID_RETURN_TYPE],
+   * [StaticWarningCode.REDIRECT_TO_INVALID_FUNCTION_TYPE], and
+   * [StaticWarningCode.REDIRECT_TO_MISSING_CONSTRUCTOR].
    */
   bool _checkForAllRedirectConstructorErrorCodes(ConstructorDeclaration node) {
     //
     // Prepare redirected constructor node
     //
     ConstructorName redirectedConstructor = node.redirectedConstructor;
     if (redirectedConstructor == null) {
       return false;
     }
     //
@@ skipping 47 matching lines @@
    *
    * This checks that return statements without expressions are not in a generative constructor and
    * the return type is not assignable to `null`; that is, we don't have `return;` if
    * the enclosing method has a return type.
    *
    * This checks that the return type matches the type of the declared return type in the enclosing
    * method or function.
    *
    * @param node the return statement to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#RETURN_IN_GENERATIVE_CONSTRUCTOR
-   * @see StaticWarningCode#RETURN_WITHOUT_VALUE
-   * @see StaticTypeWarningCode#RETURN_OF_INVALID_TYPE
+   * See [CompileTimeErrorCode.RETURN_IN_GENERATIVE_CONSTRUCTOR],
+   * [StaticWarningCode.RETURN_WITHOUT_VALUE], and
+   * [StaticTypeWarningCode.RETURN_OF_INVALID_TYPE].
    */
   bool _checkForAllReturnStatementErrorCodes(ReturnStatement node) {
     FunctionType functionType = _enclosingFunction == null ? null : _enclosingFunction.type;
     DartType expectedReturnType = functionType == null ? DynamicTypeImpl.instance : functionType.returnType;
     Expression returnExpression = node.expression;
     // RETURN_IN_GENERATIVE_CONSTRUCTOR
     bool isGenerativeConstructor = _enclosingFunction is ConstructorElement && !(_enclosingFunction as ConstructorElement).isFactory;
     if (isGenerativeConstructor) {
       if (returnExpression == null) {
         return false;
@@ skipping 19 matching lines @@
 
   /**
    * This verifies that the export namespace of the passed export directive does not export any name
    * already exported by other export directive.
    *
    * @param node the export directive node to report problem on
    * @param exportElement the [ExportElement] retrieved from the node, if the element in the
    *          node was `null`, then this method is not called
    * @param exportedLibrary the library element containing the exported element
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#AMBIGUOUS_EXPORT
+   * See [CompileTimeErrorCode.AMBIGUOUS_EXPORT].
    */
   bool _checkForAmbiguousExport(ExportDirective node, ExportElement exportElement, LibraryElement exportedLibrary) {
     if (exportedLibrary == null) {
       return false;
     }
     // check exported names
     Namespace namespace = new NamespaceBuilder().createExportNamespaceForDirective(exportElement);
     Map<String, Element> definedNames = namespace.definedNames;
     for (String name in definedNames.keys) {
       Element element = definedNames[name];
@@ skipping 16 matching lines @@
    *
    * This method corresponds to BestPracticesVerifier.checkForArgumentTypeNotAssignable.
    *
    * @param expression the expression to evaluate
    * @param expectedStaticType the expected static type of the parameter
    * @param actualStaticType the actual static type of the argument
    * @param expectedPropagatedType the expected propagated type of the parameter, may be
    *          `null`
    * @param actualPropagatedType the expected propagated type of the parameter, may be `null`
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticWarningCode#ARGUMENT_TYPE_NOT_ASSIGNABLE
-   * @see CompileTimeErrorCode#LIST_ELEMENT_TYPE_NOT_ASSIGNABLE
-   * @see StaticWarningCode#LIST_ELEMENT_TYPE_NOT_ASSIGNABLE
-   * @see CompileTimeErrorCode#MAP_KEY_TYPE_NOT_ASSIGNABLE
-   * @see CompileTimeErrorCode#MAP_VALUE_TYPE_NOT_ASSIGNABLE
-   * @see StaticWarningCode#MAP_KEY_TYPE_NOT_ASSIGNABLE
-   * @see StaticWarningCode#MAP_VALUE_TYPE_NOT_ASSIGNABLE
+   * See [StaticWarningCode.ARGUMENT_TYPE_NOT_ASSIGNABLE],
+   * [CompileTimeErrorCode.LIST_ELEMENT_TYPE_NOT_ASSIGNABLE],
+   * [StaticWarningCode.LIST_ELEMENT_TYPE_NOT_ASSIGNABLE],
+   * [CompileTimeErrorCode.MAP_KEY_TYPE_NOT_ASSIGNABLE],
+   * [CompileTimeErrorCode.MAP_VALUE_TYPE_NOT_ASSIGNABLE],
+   * [StaticWarningCode.MAP_KEY_TYPE_NOT_ASSIGNABLE], and
+   * [StaticWarningCode.MAP_VALUE_TYPE_NOT_ASSIGNABLE].
    */
   bool _checkForArgumentTypeNotAssignable(Expression expression, DartType expectedStaticType, DartType actualStaticType, ErrorCode errorCode) {
     //
     // Warning case: test static type information
     //
     if (actualStaticType != null && expectedStaticType != null) {
       if (!actualStaticType.isAssignableTo(expectedStaticType)) {
         _errorReporter.reportTypeErrorForNode(errorCode, expression, [actualStaticType, expectedStaticType]);
         return true;
       }
     }
     return false;
   }
 
   /**
    * This verifies that the passed argument can be assigned to its corresponding parameter.
    *
    * This method corresponds to BestPracticesVerifier.checkForArgumentTypeNotAssignableForArgument.
    *
    * @param argument the argument to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticWarningCode#ARGUMENT_TYPE_NOT_ASSIGNABLE
+   * See [StaticWarningCode.ARGUMENT_TYPE_NOT_ASSIGNABLE].
    */
   bool _checkForArgumentTypeNotAssignableForArgument(Expression argument) {
     if (argument == null) {
       return false;
     }
     ParameterElement staticParameterElement = argument.staticParameterElement;
     DartType staticParameterType = staticParameterElement == null ? null : staticParameterElement.type;
     return _checkForArgumentTypeNotAssignableWithExpectedTypes(argument, staticParameterType, StaticWarningCode.ARGUMENT_TYPE_NOT_ASSIGNABLE);
   }
 
   /**
    * This verifies that the passed expression can be assigned to its corresponding parameters.
    *
    * This method corresponds to
    * BestPracticesVerifier.checkForArgumentTypeNotAssignableWithExpectedTypes.
    *
    * @param expression the expression to evaluate
    * @param expectedStaticType the expected static type
    * @param expectedPropagatedType the expected propagated type, may be `null`
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticWarningCode#ARGUMENT_TYPE_NOT_ASSIGNABLE
-   * @see CompileTimeErrorCode#LIST_ELEMENT_TYPE_NOT_ASSIGNABLE
-   * @see StaticWarningCode#LIST_ELEMENT_TYPE_NOT_ASSIGNABLE
-   * @see CompileTimeErrorCode#MAP_KEY_TYPE_NOT_ASSIGNABLE
-   * @see CompileTimeErrorCode#MAP_VALUE_TYPE_NOT_ASSIGNABLE
-   * @see StaticWarningCode#MAP_KEY_TYPE_NOT_ASSIGNABLE
-   * @see StaticWarningCode#MAP_VALUE_TYPE_NOT_ASSIGNABLE
+   * See [StaticWarningCode.ARGUMENT_TYPE_NOT_ASSIGNABLE],
+   * [CompileTimeErrorCode.LIST_ELEMENT_TYPE_NOT_ASSIGNABLE],
+   * [StaticWarningCode.LIST_ELEMENT_TYPE_NOT_ASSIGNABLE],
+   * [CompileTimeErrorCode.MAP_KEY_TYPE_NOT_ASSIGNABLE],
+   * [CompileTimeErrorCode.MAP_VALUE_TYPE_NOT_ASSIGNABLE],
+   * [StaticWarningCode.MAP_KEY_TYPE_NOT_ASSIGNABLE], and
+   * [StaticWarningCode.MAP_VALUE_TYPE_NOT_ASSIGNABLE].
    */
   bool _checkForArgumentTypeNotAssignableWithExpectedTypes(Expression expression, DartType expectedStaticType, ErrorCode errorCode) => _checkForArgumentTypeNotAssignable(expression, expectedStaticType, getStaticType(expression), errorCode);
 
   /**
    * This verifies that the passed arguments can be assigned to their corresponding parameters.
    *
    * This method corresponds to BestPracticesVerifier.checkForArgumentTypesNotAssignableInList.
    *
    * @param node the arguments to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticWarningCode#ARGUMENT_TYPE_NOT_ASSIGNABLE
+   * See [StaticWarningCode.ARGUMENT_TYPE_NOT_ASSIGNABLE].
    */
   bool _checkForArgumentTypesNotAssignableInList(ArgumentList argumentList) {
     if (argumentList == null) {
       return false;
     }
     bool problemReported = false;
     for (Expression argument in argumentList.arguments) {
       if (_checkForArgumentTypeNotAssignableForArgument(argument)) {
         problemReported = true;
       }
@@ skipping 24 matching lines @@
     }
     _errorReporter.reportErrorForNode(errorCode, expression, arguments);
     return true;
   }
 
   /**
    * This verifies that the passed expression is not final.
    *
    * @param node the expression to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticWarningCode#ASSIGNMENT_TO_CONST
-   * @see StaticWarningCode#ASSIGNMENT_TO_FINAL
-   * @see StaticWarningCode#ASSIGNMENT_TO_METHOD
+   * See [StaticWarningCode.ASSIGNMENT_TO_CONST],
+   * [StaticWarningCode.ASSIGNMENT_TO_FINAL], and
+   * [StaticWarningCode.ASSIGNMENT_TO_METHOD].
    */
   bool _checkForAssignmentToFinal(Expression expression) {
     // prepare element
     Element element = null;
     AstNode highlightedNode = expression;
     if (expression is Identifier) {
       element = expression.staticElement;
       if (expression is PrefixedIdentifier) {
         highlightedNode = expression.identifier;
       }
@@ skipping 34 matching lines @@
     return false;
   }
 
   /**
    * This verifies that the passed identifier is not a keyword, and generates the passed error code
    * on the identifier if it is a keyword.
    *
    * @param identifier the identifier to check to ensure that it is not a keyword
    * @param errorCode if the passed identifier is a keyword then this error code is created on the
    *          identifier, the error code will be one of
-   *          [CompileTimeErrorCode#BUILT_IN_IDENTIFIER_AS_TYPE_NAME],
-   *          [CompileTimeErrorCode#BUILT_IN_IDENTIFIER_AS_TYPE_PARAMETER_NAME] or
-   *          [CompileTimeErrorCode#BUILT_IN_IDENTIFIER_AS_TYPEDEF_NAME]
+   *          [CompileTimeErrorCode.BUILT_IN_IDENTIFIER_AS_TYPE_NAME],
+   *          [CompileTimeErrorCode.BUILT_IN_IDENTIFIER_AS_TYPE_PARAMETER_NAME] or
+   *          [CompileTimeErrorCode.BUILT_IN_IDENTIFIER_AS_TYPEDEF_NAME]
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#BUILT_IN_IDENTIFIER_AS_TYPE_NAME
-   * @see CompileTimeErrorCode#BUILT_IN_IDENTIFIER_AS_TYPE_PARAMETER_NAME
-   * @see CompileTimeErrorCode#BUILT_IN_IDENTIFIER_AS_TYPEDEF_NAME
+   * See [CompileTimeErrorCode.BUILT_IN_IDENTIFIER_AS_TYPE_NAME],
+   * [CompileTimeErrorCode.BUILT_IN_IDENTIFIER_AS_TYPE_PARAMETER_NAME], and
+   * [CompileTimeErrorCode.BUILT_IN_IDENTIFIER_AS_TYPEDEF_NAME].
    */
   bool _checkForBuiltInIdentifierAsName(SimpleIdentifier identifier, ErrorCode errorCode) {
     sc.Token token = identifier.token;
     if (token.type == sc.TokenType.KEYWORD) {
       _errorReporter.reportErrorForNode(errorCode, identifier, [identifier.name]);
       return true;
     }
     return false;
   }
 
   /**
    * This verifies that the given switch case is terminated with 'break', 'continue', 'return' or
    * 'throw'.
    *
    * @param node the switch case to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticWarningCode#CASE_BLOCK_NOT_TERMINATED
+   * see [StaticWarningCode.CASE_BLOCK_NOT_TERMINATED].
    */
   bool _checkForCaseBlockNotTerminated(SwitchCase node) {
     NodeList<Statement> statements = node.statements;
     if (statements.isEmpty) {
       // fall-through without statements at all
       AstNode parent = node.parent;
       if (parent is SwitchStatement) {
         SwitchStatement switchStatement = parent;
         NodeList<SwitchMember> members = switchStatement.members;
         int index = members.indexOf(node);
@@ skipping 20 matching lines @@
     _errorReporter.reportErrorForToken(StaticWarningCode.CASE_BLOCK_NOT_TERMINATED, node.keyword, []);
     return true;
   }
 
   /**
    * This verifies that the switch cases in the given switch statement is terminated with 'break',
    * 'continue', 'return' or 'throw'.
    *
    * @param node the switch statement containing the cases to be checked
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticWarningCode#CASE_BLOCK_NOT_TERMINATED
+   * See [StaticWarningCode.CASE_BLOCK_NOT_TERMINATED].
    */
   bool _checkForCaseBlocksNotTerminated(SwitchStatement node) {
     bool foundError = false;
     NodeList<SwitchMember> members = node.members;
     int lastMember = members.length - 1;
     for (int i = 0; i < lastMember; i++) {
       SwitchMember member = members[i];
       if (member is SwitchCase && _checkForCaseBlockNotTerminated(member)) {
         foundError = true;
       }
     }
     return foundError;
   }
 
   /**
    * This verifies that the passed method declaration is abstract only if the enclosing class is
    * also abstract.
    *
    * @param node the method declaration to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticWarningCode#CONCRETE_CLASS_WITH_ABSTRACT_MEMBER
+   * See [StaticWarningCode.CONCRETE_CLASS_WITH_ABSTRACT_MEMBER].
    */
   bool _checkForConcreteClassWithAbstractMember(MethodDeclaration node) {
     if (node.isAbstract && _enclosingClass != null && !_enclosingClass.isAbstract) {
       SimpleIdentifier nameNode = node.name;
       String memberName = nameNode.name;
       ExecutableElement overriddenMember;
       if (node.isGetter) {
         overriddenMember = _enclosingClass.lookUpInheritedConcreteGetter(memberName, _currentLibrary);
       } else if (node.isSetter) {
         overriddenMember = _enclosingClass.lookUpInheritedConcreteSetter(memberName, _currentLibrary);
       } else {
         overriddenMember = _enclosingClass.lookUpInheritedConcreteMethod(memberName, _currentLibrary);
       }
       if (overriddenMember == null) {
         _errorReporter.reportErrorForNode(StaticWarningCode.CONCRETE_CLASS_WITH_ABSTRACT_MEMBER, nameNode, [memberName, _enclosingClass.displayName]);
         return true;
       }
     }
     return false;
   }
 
   /**
    * This verifies all possible conflicts of the constructor name with other constructors and
    * members of the same class.
    *
    * @param node the constructor declaration to evaluate
    * @param constructorElement the constructor element
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#DUPLICATE_CONSTRUCTOR_DEFAULT
-   * @see CompileTimeErrorCode#DUPLICATE_CONSTRUCTOR_NAME
-   * @see CompileTimeErrorCode#CONFLICTING_CONSTRUCTOR_NAME_AND_FIELD
-   * @see CompileTimeErrorCode#CONFLICTING_CONSTRUCTOR_NAME_AND_METHOD
+   * See [CompileTimeErrorCode.DUPLICATE_CONSTRUCTOR_DEFAULT],
+   * [CompileTimeErrorCode.DUPLICATE_CONSTRUCTOR_NAME],
+   * [CompileTimeErrorCode.CONFLICTING_CONSTRUCTOR_NAME_AND_FIELD], and
+   * [CompileTimeErrorCode.CONFLICTING_CONSTRUCTOR_NAME_AND_METHOD].
    */
   bool _checkForConflictingConstructorNameAndMember(ConstructorDeclaration node, ConstructorElement constructorElement) {
     SimpleIdentifier constructorName = node.name;
     String name = constructorElement.name;
     ClassElement classElement = constructorElement.enclosingElement;
     // constructors
     List<ConstructorElement> constructors = classElement.constructors;
     for (ConstructorElement otherConstructor in constructors) {
       if (identical(otherConstructor, constructorElement)) {
         continue;
@@ skipping 23 matching lines @@
       }
     }
     return false;
   }
 
   /**
    * This verifies that the [enclosingClass] does not have a method and getter pair with the
    * same name on, via inheritance.
    *
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#CONFLICTING_GETTER_AND_METHOD
-   * @see CompileTimeErrorCode#CONFLICTING_METHOD_AND_GETTER
+   * See [CompileTimeErrorCode.CONFLICTING_GETTER_AND_METHOD], and
+   * [CompileTimeErrorCode.CONFLICTING_METHOD_AND_GETTER].
    */
   bool _checkForConflictingGetterAndMethod() {
     if (_enclosingClass == null) {
       return false;
     }
     bool hasProblem = false;
     // method declared in the enclosing class vs. inherited getter
     for (MethodElement method in _enclosingClass.methods) {
       String name = method.name;
       // find inherited property accessor (and can be only getter)
@@ skipping 30 matching lines @@
     return hasProblem;
   }
 
   /**
    * This verifies that the superclass of the [enclosingClass] does not declare accessible
    * static members with the same name as the instance getters/setters declared in
    * [enclosingClass].
    *
    * @param node the method declaration to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticWarningCode#CONFLICTING_INSTANCE_GETTER_AND_SUPERCLASS_MEMBER
-   * @see StaticWarningCode#CONFLICTING_INSTANCE_SETTER_AND_SUPERCLASS_MEMBER
+   * See [StaticWarningCode.CONFLICTING_INSTANCE_GETTER_AND_SUPERCLASS_MEMBER], and
+   * [StaticWarningCode.CONFLICTING_INSTANCE_SETTER_AND_SUPERCLASS_MEMBER].
    */
   bool _checkForConflictingInstanceGetterAndSuperclassMember() {
     if (_enclosingClass == null) {
       return false;
     }
     InterfaceType enclosingType = _enclosingClass.type;
     // check every accessor
     bool hasProblem = false;
     for (PropertyAccessorElement accessor in _enclosingClass.accessors) {
       // we analyze instance accessors here
@@ skipping 39 matching lines @@
   }
 
   /**
    * This verifies that the enclosing class does not have a setter with the same name as the passed
    * instance method declaration.
    *
    * TODO(jwren) add other "conflicting" error codes into algorithm/ data structure
    *
    * @param node the method declaration to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticWarningCode#CONFLICTING_INSTANCE_METHOD_SETTER
+   * See [StaticWarningCode.CONFLICTING_INSTANCE_METHOD_SETTER].
    */
   bool _checkForConflictingInstanceMethodSetter(ClassDeclaration node) {
     // Reference all of the class members in this class.
     NodeList<ClassMember> classMembers = node.members;
     if (classMembers.isEmpty) {
       return false;
     }
     // Create a HashMap to track conflicting members, and then loop through members in the class to
     // construct the HashMap, at the same time, look for violations.  Don't add members if they are
     // part of a conflict, this prevents multiple warnings for one issue.
@@ skipping 60 matching lines @@
     }
     return foundError;
   }
 
   /**
    * This verifies that the enclosing class does not have an instance member with the same name as
    * the passed static getter method declaration.
    *
    * @param node the method declaration to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticWarningCode#CONFLICTING_STATIC_GETTER_AND_INSTANCE_SETTER
+   * See [StaticWarningCode.CONFLICTING_STATIC_GETTER_AND_INSTANCE_SETTER].
    */
   bool _checkForConflictingStaticGetterAndInstanceSetter(MethodDeclaration node) {
     if (!node.isStatic) {
       return false;
     }
     // prepare name
     SimpleIdentifier nameNode = node.name;
     if (nameNode == null) {
       return false;
     }
@@ skipping 19 matching lines @@
     _errorReporter.reportErrorForNode(StaticWarningCode.CONFLICTING_STATIC_GETTER_AND_INSTANCE_SETTER, nameNode, [setterType.displayName]);
     return true;
   }
 
   /**
    * This verifies that the enclosing class does not have an instance member with the same name as
    * the passed static getter method declaration.
    *
    * @param node the method declaration to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticWarningCode#CONFLICTING_STATIC_SETTER_AND_INSTANCE_MEMBER
+   * See [StaticWarningCode.CONFLICTING_STATIC_SETTER_AND_INSTANCE_MEMBER].
    */
   bool _checkForConflictingStaticSetterAndInstanceMember(MethodDeclaration node) {
     if (!node.isStatic) {
       return false;
     }
     // prepare name
     SimpleIdentifier nameNode = node.name;
     if (nameNode == null) {
       return false;
     }
@@ skipping 25 matching lines @@
     // report problem
     _errorReporter.reportErrorForNode(StaticWarningCode.CONFLICTING_STATIC_SETTER_AND_INSTANCE_MEMBER, nameNode, [memberType.displayName]);
     return true;
   }
 
   /**
    * This verifies all conflicts between type variable and enclosing class. TODO(scheglov)
    *
    * @param node the class declaration to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#CONFLICTING_TYPE_VARIABLE_AND_CLASS
-   * @see CompileTimeErrorCode#CONFLICTING_TYPE_VARIABLE_AND_MEMBER
+   * See [CompileTimeErrorCode.CONFLICTING_TYPE_VARIABLE_AND_CLASS], and
+   * [CompileTimeErrorCode.CONFLICTING_TYPE_VARIABLE_AND_MEMBER].
    */
   bool _checkForConflictingTypeVariableErrorCodes(ClassDeclaration node) {
     bool problemReported = false;
     for (TypeParameterElement typeParameter in _enclosingClass.typeParameters) {
       String name = typeParameter.name;
       // name is same as the name of the enclosing class
       if (_enclosingClass.name == name) {
         _errorReporter.reportErrorForOffset(CompileTimeErrorCode.CONFLICTING_TYPE_VARIABLE_AND_CLASS, typeParameter.nameOffset, name.length, [name]);
         problemReported = true;
       }
       // check members
       if (_enclosingClass.getMethod(name) != null || _enclosingClass.getGetter(name) != null || _enclosingClass.getSetter(name) != null) {
         _errorReporter.reportErrorForOffset(CompileTimeErrorCode.CONFLICTING_TYPE_VARIABLE_AND_MEMBER, typeParameter.nameOffset, name.length, [name]);
         problemReported = true;
       }
     }
     return problemReported;
   }
 
   /**
    * This verifies that if the passed constructor declaration is 'const' then there are no
    * invocations of non-'const' super constructors.
    *
    * @param node the constructor declaration to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#CONST_CONSTRUCTOR_WITH_NON_CONST_SUPER
+   * See [CompileTimeErrorCode.CONST_CONSTRUCTOR_WITH_NON_CONST_SUPER].
    */
   bool _checkForConstConstructorWithNonConstSuper(ConstructorDeclaration node) {
     if (!_isEnclosingConstructorConst) {
       return false;
     }
     // OK, const factory, checked elsewhere
     if (node.factoryKeyword != null) {
       return false;
     }
     // check for mixins
@@ skipping 33 matching lines @@
     return true;
   }
 
   /**
    * This verifies that if the passed constructor declaration is 'const' then there are no non-final
    * instance variable.
    *
    * @param node the constructor declaration to evaluate
    * @param constructorElement the constructor element
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#CONST_CONSTRUCTOR_WITH_NON_FINAL_FIELD
+   * See [CompileTimeErrorCode.CONST_CONSTRUCTOR_WITH_NON_FINAL_FIELD].
    */
   bool _checkForConstConstructorWithNonFinalField(ConstructorDeclaration node, ConstructorElement constructorElement) {
     if (!_isEnclosingConstructorConst) {
       return false;
     }
     // check if there is non-final field
     ClassElement classElement = constructorElement.enclosingElement;
     if (!classElement.hasNonFinalField) {
       return false;
     }
     // report problem
     _errorReporter.reportErrorForNode(CompileTimeErrorCode.CONST_CONSTRUCTOR_WITH_NON_FINAL_FIELD, node, []);
     return true;
   }
 
   /**
    * This verifies that the passed 'const' instance creation expression is not creating a deferred
    * type.
    *
    * @param node the instance creation expression to evaluate
    * @param constructorName the constructor name, always non-`null`
    * @param typeName the name of the type defining the constructor, always non-`null`
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#CONST_DEFERRED_CLASS
+   * See [CompileTimeErrorCode.CONST_DEFERRED_CLASS].
    */
   bool _checkForConstDeferredClass(InstanceCreationExpression node, ConstructorName constructorName, TypeName typeName) {
     if (typeName.isDeferred) {
       _errorReporter.reportErrorForNode(CompileTimeErrorCode.CONST_DEFERRED_CLASS, constructorName, [typeName.name.name]);
       return true;
     }
     return false;
   }
 
   /**
    * This verifies that the passed throw expression is not enclosed in a 'const' constructor
    * declaration.
    *
    * @param node the throw expression expression to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#CONST_CONSTRUCTOR_THROWS_EXCEPTION
+   * See [CompileTimeErrorCode.CONST_CONSTRUCTOR_THROWS_EXCEPTION].
    */
   bool _checkForConstEvalThrowsException(ThrowExpression node) {
     if (_isEnclosingConstructorConst) {
       _errorReporter.reportErrorForNode(CompileTimeErrorCode.CONST_CONSTRUCTOR_THROWS_EXCEPTION, node, []);
       return true;
     }
     return false;
   }
 
   /**
    * This verifies that the passed normal formal parameter is not 'const'.
    *
    * @param node the normal formal parameter to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#CONST_FORMAL_PARAMETER
+   * See [CompileTimeErrorCode.CONST_FORMAL_PARAMETER].
    */
   bool _checkForConstFormalParameter(NormalFormalParameter node) {
     if (node.isConst) {
       _errorReporter.reportErrorForNode(CompileTimeErrorCode.CONST_FORMAL_PARAMETER, node, []);
       return true;
     }
     return false;
   }
 
   /**
    * This verifies that the passed instance creation expression is not being invoked on an abstract
    * class.
    *
    * @param node the instance creation expression to evaluate
    * @param typeName the [TypeName] of the [ConstructorName] from the
    *          [InstanceCreationExpression], this is the AST node that the error is attached to
    * @param type the type being constructed with this [InstanceCreationExpression]
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticWarningCode#CONST_WITH_ABSTRACT_CLASS
-   * @see StaticWarningCode#NEW_WITH_ABSTRACT_CLASS
+   * See [StaticWarningCode.CONST_WITH_ABSTRACT_CLASS], and
+   * [StaticWarningCode.NEW_WITH_ABSTRACT_CLASS].
    */
   bool _checkForConstOrNewWithAbstractClass(InstanceCreationExpression node, TypeName typeName, InterfaceType type) {
     if (type.element.isAbstract) {
       ConstructorElement element = node.staticElement;
       if (element != null && !element.isFactory) {
         if ((node.keyword as sc.KeywordToken).keyword == sc.Keyword.CONST) {
           _errorReporter.reportErrorForNode(StaticWarningCode.CONST_WITH_ABSTRACT_CLASS, typeName, []);
         } else {
           _errorReporter.reportErrorForNode(StaticWarningCode.NEW_WITH_ABSTRACT_CLASS, typeName, []);
         }
         return true;
       }
     }
     return false;
   }
 
   /**
    * This verifies that the passed instance creation expression is not being invoked on an enum.
    *
    * @param node the instance creation expression to verify
    * @param typeName the [TypeName] of the [ConstructorName] from the
    *          [InstanceCreationExpression], this is the AST node that the error is attached to
    * @param type the type being constructed with this [InstanceCreationExpression]
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#INSTANTIATE_ENUM
+   * See [CompileTimeErrorCode.INSTANTIATE_ENUM].
    */
   bool _checkForConstOrNewWithEnum(InstanceCreationExpression node, TypeName typeName, InterfaceType type) {
     if (type.element.isEnum) {
       _errorReporter.reportErrorForNode(CompileTimeErrorCode.INSTANTIATE_ENUM, typeName, []);
       return true;
     }
     return false;
   }
 
   /**
    * This verifies that the passed 'const' instance creation expression is not being invoked on a
    * constructor that is not 'const'.
    *
    * This method assumes that the instance creation was tested to be 'const' before being called.
    *
    * @param node the instance creation expression to verify
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#CONST_WITH_NON_CONST
+   * See [CompileTimeErrorCode.CONST_WITH_NON_CONST].
    */
   bool _checkForConstWithNonConst(InstanceCreationExpression node) {
     ConstructorElement constructorElement = node.staticElement;
     if (constructorElement != null && !constructorElement.isConst) {
       _errorReporter.reportErrorForNode(CompileTimeErrorCode.CONST_WITH_NON_CONST, node, []);
       return true;
     }
     return false;
   }
 
   /**
    * This verifies that the passed type name does not reference any type parameters.
    *
    * @param typeName the type name to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#CONST_WITH_TYPE_PARAMETERS
+   * See [CompileTimeErrorCode.CONST_WITH_TYPE_PARAMETERS].
    */
   bool _checkForConstWithTypeParameters(TypeName typeName) {
     // something wrong with AST
     if (typeName == null) {
       return false;
     }
     Identifier name = typeName.name;
     if (name == null) {
       return false;
     }
@@ skipping 19 matching lines @@
   /**
    * This verifies that if the passed 'const' instance creation expression is being invoked on the
    * resolved constructor.
    *
    * This method assumes that the instance creation was tested to be 'const' before being called.
    *
    * @param node the instance creation expression to evaluate
    * @param constructorName the constructor name, always non-`null`
    * @param typeName the name of the type defining the constructor, always non-`null`
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#CONST_WITH_UNDEFINED_CONSTRUCTOR
-   * @see CompileTimeErrorCode#CONST_WITH_UNDEFINED_CONSTRUCTOR_DEFAULT
+   * See [CompileTimeErrorCode.CONST_WITH_UNDEFINED_CONSTRUCTOR], and
+   * [CompileTimeErrorCode.CONST_WITH_UNDEFINED_CONSTRUCTOR_DEFAULT].
    */
   bool _checkForConstWithUndefinedConstructor(InstanceCreationExpression node, ConstructorName constructorName, TypeName typeName) {
     // OK if resolved
     if (node.staticElement != null) {
       return false;
     }
     DartType type = typeName.type;
     if (type is InterfaceType) {
       ClassElement element = type.element;
       if (element != null && element.isEnum) {
@@ skipping 10 matching lines @@
       _errorReporter.reportErrorForNode(CompileTimeErrorCode.CONST_WITH_UNDEFINED_CONSTRUCTOR_DEFAULT, constructorName, [className]);
     }
     return true;
   }
 
   /**
    * This verifies that there are no default parameters in the passed function type alias.
    *
    * @param node the function type alias to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#DEFAULT_VALUE_IN_FUNCTION_TYPE_ALIAS
+   * See [CompileTimeErrorCode.DEFAULT_VALUE_IN_FUNCTION_TYPE_ALIAS].
    */
   bool _checkForDefaultValueInFunctionTypeAlias(FunctionTypeAlias node) {
     bool result = false;
     FormalParameterList formalParameterList = node.parameters;
     NodeList<FormalParameter> parameters = formalParameterList.parameters;
     for (FormalParameter formalParameter in parameters) {
       if (formalParameter is DefaultFormalParameter) {
         DefaultFormalParameter defaultFormalParameter = formalParameter;
         if (defaultFormalParameter.defaultValue != null) {
           _errorReporter.reportErrorForNode(CompileTimeErrorCode.DEFAULT_VALUE_IN_FUNCTION_TYPE_ALIAS, node, []);
           result = true;
         }
       }
     }
     return result;
   }
 
   /**
    * This verifies that the given default formal parameter is not part of a function typed
    * parameter.
    *
    * @param node the default formal parameter to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#DEFAULT_VALUE_IN_FUNCTION_TYPED_PARAMETER
+   * See [CompileTimeErrorCode.DEFAULT_VALUE_IN_FUNCTION_TYPED_PARAMETER].
    */
   bool _checkForDefaultValueInFunctionTypedParameter(DefaultFormalParameter node) {
     // OK, not in a function typed parameter.
     if (!_isInFunctionTypedFormalParameter) {
       return false;
     }
     // OK, no default value.
     if (node.defaultValue == null) {
       return false;
     }
     // Report problem.
     _errorReporter.reportErrorForNode(CompileTimeErrorCode.DEFAULT_VALUE_IN_FUNCTION_TYPED_PARAMETER, node, []);
     return true;
   }
 
   /**
    * This verifies that any deferred imports in the given compilation unit have a unique prefix.
    *
    * @param node the compilation unit containing the imports to be checked
    * @return `true` if an error was generated
-   * @see CompileTimeErrorCode#SHARED_DEFERRED_PREFIX
+   * See [CompileTimeErrorCode.SHARED_DEFERRED_PREFIX].
    */
   bool _checkForDeferredPrefixCollisions(CompilationUnit node) {
     bool foundError = false;
     NodeList<Directive> directives = node.directives;
     int count = directives.length;
     if (count > 0) {
       HashMap<PrefixElement, List<ImportDirective>> prefixToDirectivesMap = new HashMap<PrefixElement, List<ImportDirective>>();
       for (int i = 0; i < count; i++) {
         Directive directive = directives[i];
         if (directive is ImportDirective) {
@@ skipping 20 matching lines @@
       }
     }
     return foundError;
   }
 
   /**
    * This verifies that the enclosing class does not have an instance member with the given name of
    * the static member.
    *
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#DUPLICATE_DEFINITION_INHERITANCE
+   * See [CompileTimeErrorCode.DUPLICATE_DEFINITION_INHERITANCE].
    */
   bool _checkForDuplicateDefinitionInheritance() {
     if (_enclosingClass == null) {
       return false;
     }
     bool hasProblem = false;
     for (ExecutableElement member in _enclosingClass.methods) {
       if (member.isStatic && _checkForDuplicateDefinitionOfMember(member)) {
         hasProblem = true;
       }
     }
     for (ExecutableElement member in _enclosingClass.accessors) {
       if (member.isStatic && _checkForDuplicateDefinitionOfMember(member)) {
         hasProblem = true;
       }
     }
     return hasProblem;
   }
 
   /**
    * This verifies that the enclosing class does not have an instance member with the given name of
    * the static member.
    *
    * @param staticMember the static member to check conflict for
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#DUPLICATE_DEFINITION_INHERITANCE
+   * See [CompileTimeErrorCode.DUPLICATE_DEFINITION_INHERITANCE].
    */
   bool _checkForDuplicateDefinitionOfMember(ExecutableElement staticMember) {
     // prepare name
     String name = staticMember.name;
     if (name == null) {
       return false;
     }
     // try to find member
     ExecutableElement inheritedMember = _inheritanceManager.lookupInheritance(_enclosingClass, name);
     if (inheritedMember == null) {
@@ skipping 16 matching lines @@
     _errorReporter.reportErrorForOffset(CompileTimeErrorCode.DUPLICATE_DEFINITION_INHERITANCE, staticMember.nameOffset, name.length, [name, displayName]);
     return true;
   }
 
   /**
    * This verifies if the passed list literal has type arguments then there is exactly one.
    *
    * @param node the list literal to evaluate
    * @param typeArguments the type arguments, always non-`null`
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticTypeWarningCode#EXPECTED_ONE_LIST_TYPE_ARGUMENTS
+   * See [StaticTypeWarningCode.EXPECTED_ONE_LIST_TYPE_ARGUMENTS].
    */
   bool _checkForExpectedOneListTypeArgument(ListLiteral node, TypeArgumentList typeArguments) {
     // check number of type arguments
     int num = typeArguments.arguments.length;
     if (num == 1) {
       return false;
     }
     // report problem
     _errorReporter.reportErrorForNode(StaticTypeWarningCode.EXPECTED_ONE_LIST_TYPE_ARGUMENTS, typeArguments, [num]);
     return true;
   }
 
   /**
    * This verifies the passed import has unique name among other exported libraries.
    *
    * @param node the export directive to evaluate
    * @param exportElement the [ExportElement] retrieved from the node, if the element in the
    *          node was `null`, then this method is not called
    * @param exportedLibrary the library element containing the exported element
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#EXPORT_DUPLICATED_LIBRARY_NAME
+   * See [CompileTimeErrorCode.EXPORT_DUPLICATED_LIBRARY_NAME].
    */
   bool _checkForExportDuplicateLibraryName(ExportDirective node, ExportElement exportElement, LibraryElement exportedLibrary) {
     if (exportedLibrary == null) {
       return false;
     }
     String name = exportedLibrary.name;
     // check if there is other exported library with the same name
     LibraryElement prevLibrary = _nameToExportElement[name];
     if (prevLibrary != null) {
       if (prevLibrary != exportedLibrary) {
@@ skipping 21 matching lines @@
   }
 
   /**
    * Check that if the visiting library is not system, then any passed library should not be SDK
    * internal library.
    *
    * @param node the export directive to evaluate
    * @param exportElement the [ExportElement] retrieved from the node, if the element in the
    *          node was `null`, then this method is not called
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#EXPORT_INTERNAL_LIBRARY
+   * See [CompileTimeErrorCode.EXPORT_INTERNAL_LIBRARY].
    */
   bool _checkForExportInternalLibrary(ExportDirective node, ExportElement exportElement) {
     if (_isInSystemLibrary) {
       return false;
     }
     // should be private
     DartSdk sdk = _currentLibrary.context.sourceFactory.dartSdk;
     String uri = exportElement.uri;
     SdkLibrary sdkLibrary = sdk.getSdkLibrary(uri);
     if (sdkLibrary == null) {
       return false;
     }
     if (!sdkLibrary.isInternal) {
       return false;
     }
     // report problem
     _errorReporter.reportErrorForNode(CompileTimeErrorCode.EXPORT_INTERNAL_LIBRARY, node, [node.uri]);
     return true;
   }
 
   /**
    * This verifies that the passed extends clause does not extend a deferred class.
    *
    * @param node the extends clause to test
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#EXTENDS_DEFERRED_CLASS
+   * See [CompileTimeErrorCode.EXTENDS_DEFERRED_CLASS].
    */
   bool _checkForExtendsDeferredClass(ExtendsClause node) {
     if (node == null) {
       return false;
     }
     return _checkForExtendsOrImplementsDeferredClass(node.superclass, CompileTimeErrorCode.EXTENDS_DEFERRED_CLASS);
   }
 
   /**
    * This verifies that the passed type alias does not extend a deferred class.
    *
    * @param node the extends clause to test
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#EXTENDS_DISALLOWED_CLASS
+   * See [CompileTimeErrorCode.EXTENDS_DISALLOWED_CLASS].
    */
   bool _checkForExtendsDeferredClassInTypeAlias(ClassTypeAlias node) {
     if (node == null) {
       return false;
     }
     return _checkForExtendsOrImplementsDeferredClass(node.superclass, CompileTimeErrorCode.EXTENDS_DEFERRED_CLASS);
   }
 
   /**
    * This verifies that the passed extends clause does not extend classes such as num or String.
    *
    * @param node the extends clause to test
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#EXTENDS_DISALLOWED_CLASS
+   * See [CompileTimeErrorCode.EXTENDS_DISALLOWED_CLASS].
    */
   bool _checkForExtendsDisallowedClass(ExtendsClause node) {
     if (node == null) {
       return false;
     }
     return _checkForExtendsOrImplementsDisallowedClass(node.superclass, CompileTimeErrorCode.EXTENDS_DISALLOWED_CLASS);
   }
 
   /**
    * This verifies that the passed type alias does not extend classes such as num or String.
    *
    * @param node the extends clause to test
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#EXTENDS_DISALLOWED_CLASS
+   * See [CompileTimeErrorCode.EXTENDS_DISALLOWED_CLASS].
    */
   bool _checkForExtendsDisallowedClassInTypeAlias(ClassTypeAlias node) {
     if (node == null) {
       return false;
     }
     return _checkForExtendsOrImplementsDisallowedClass(node.superclass, CompileTimeErrorCode.EXTENDS_DISALLOWED_CLASS);
   }
 
   /**
    * This verifies that the passed type name does not extend, implement or mixin classes that are
    * deferred.
    *
    * @param node the type name to test
    * @return `true` if and only if an error code is generated on the passed node
-   * @see #checkForExtendsDeferredClass(ExtendsClause)
-   * @see #checkForExtendsDeferredClassInTypeAlias(ClassTypeAlias)
-   * @see #checkForImplementsDeferredClass(ImplementsClause)
-   * @see #checkForAllMixinErrorCodes(WithClause)
-   * @see CompileTimeErrorCode#EXTENDS_DEFERRED_CLASS
-   * @see CompileTimeErrorCode#IMPLEMENTS_DEFERRED_CLASS
-   * @see CompileTimeErrorCode#MIXIN_DEFERRED_CLASS
+   * See [_checkForExtendsDeferredClass],
+   * [_checkForExtendsDeferredClassInTypeAlias],
+   * [_checkForImplementsDeferredClass],
+   * [_checkForAllMixinErrorCodes],
+   * [CompileTimeErrorCode.EXTENDS_DEFERRED_CLASS],
+   * [CompileTimeErrorCode.IMPLEMENTS_DEFERRED_CLASS], and
+   * [CompileTimeErrorCode.MIXIN_DEFERRED_CLASS].
    */
   bool _checkForExtendsOrImplementsDeferredClass(TypeName typeName, ErrorCode errorCode) {
     if (typeName.isSynthetic) {
       return false;
     }
     if (typeName.isDeferred) {
       _errorReporter.reportErrorForNode(errorCode, typeName, [typeName.name.name]);
       return true;
     }
     return false;
   }
 
   /**
    * This verifies that the passed type name does not extend, implement or mixin classes such as
    * 'num' or 'String'.
    *
    * @param node the type name to test
    * @return `true` if and only if an error code is generated on the passed node
-   * @see #checkForExtendsDisallowedClass(ExtendsClause)
-   * @see #checkForExtendsDisallowedClassInTypeAlias(ClassTypeAlias)
-   * @see #checkForImplementsDisallowedClass(ImplementsClause)
-   * @see #checkForAllMixinErrorCodes(WithClause)
-   * @see CompileTimeErrorCode#EXTENDS_DISALLOWED_CLASS
-   * @see CompileTimeErrorCode#IMPLEMENTS_DISALLOWED_CLASS
-   * @see CompileTimeErrorCode#MIXIN_OF_DISALLOWED_CLASS
+   * See [_checkForExtendsDisallowedClass],
+   * [_checkForExtendsDisallowedClassInTypeAlias],
+   * [_checkForImplementsDisallowedClass],
+   * [_checkForAllMixinErrorCodes],
+   * [CompileTimeErrorCode.EXTENDS_DISALLOWED_CLASS],
+   * [CompileTimeErrorCode.IMPLEMENTS_DISALLOWED_CLASS], and
+   * [CompileTimeErrorCode.MIXIN_OF_DISALLOWED_CLASS].
    */
   bool _checkForExtendsOrImplementsDisallowedClass(TypeName typeName, ErrorCode errorCode) {
     if (typeName.isSynthetic) {
       return false;
     }
     DartType superType = typeName.type;
     for (InterfaceType disallowedType in _DISALLOWED_TYPES_TO_EXTEND_OR_IMPLEMENT) {
       if (superType != null && superType == disallowedType) {
         // if the violating type happens to be 'num', we need to rule out the case where the
         // enclosing class is 'int' or 'double'
@@ skipping 20 matching lines @@
   }
 
   /**
    * This verifies that the passed constructor field initializer has compatible field and
    * initializer expression types.
    *
    * @param node the constructor field initializer to test
    * @param staticElement the static element from the name in the
    *          [ConstructorFieldInitializer]
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#CONST_FIELD_INITIALIZER_NOT_ASSIGNABLE
-   * @see StaticWarningCode#FIELD_INITIALIZER_NOT_ASSIGNABLE
+   * See [CompileTimeErrorCode.CONST_FIELD_INITIALIZER_NOT_ASSIGNABLE], and
+   * [StaticWarningCode.FIELD_INITIALIZER_NOT_ASSIGNABLE].
    */
   bool _checkForFieldInitializerNotAssignable(ConstructorFieldInitializer node, Element staticElement) {
     // prepare field element
     if (staticElement is! FieldElement) {
       return false;
     }
     FieldElement fieldElement = staticElement as FieldElement;
     // prepare field type
     DartType fieldType = fieldElement.type;
     // prepare expression type
@@ skipping 38 matching lines @@
     //          fieldType);
     //    }
     //    return true;
   }
 
   /**
    * This verifies that the passed field formal parameter is in a constructor declaration.
    *
    * @param node the field formal parameter to test
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#FIELD_INITIALIZER_OUTSIDE_CONSTRUCTOR
+   * See [CompileTimeErrorCode.FIELD_INITIALIZER_OUTSIDE_CONSTRUCTOR].
    */
   bool _checkForFieldInitializingFormalRedirectingConstructor(FieldFormalParameter node) {
     ConstructorDeclaration constructor = node.getAncestor((node) => node is ConstructorDeclaration);
     if (constructor == null) {
       _errorReporter.reportErrorForNode(CompileTimeErrorCode.FIELD_INITIALIZER_OUTSIDE_CONSTRUCTOR, node, []);
       return true;
     }
     // constructor cannot be a factory
     if (constructor.factoryKeyword != null) {
       _errorReporter.reportErrorForNode(CompileTimeErrorCode.FIELD_INITIALIZER_FACTORY_CONSTRUCTOR, node, []);
@@ skipping 12 matching lines @@
 
   /**
    * This verifies that the passed variable declaration list has only initialized variables if the
    * list is final or const. This method is called by
    * [checkForFinalNotInitializedInClass],
    * [visitTopLevelVariableDeclaration] and
    * [visitVariableDeclarationStatement].
    *
    * @param node the class declaration to test
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#CONST_NOT_INITIALIZED
-   * @see StaticWarningCode#FINAL_NOT_INITIALIZED
+   * See [CompileTimeErrorCode.CONST_NOT_INITIALIZED], and
+   * [StaticWarningCode.FINAL_NOT_INITIALIZED].
    */
   bool _checkForFinalNotInitialized(VariableDeclarationList node) {
     if (_isInNativeClass) {
       return false;
     }
     bool foundError = false;
     if (!node.isSynthetic) {
       NodeList<VariableDeclaration> variables = node.variables;
       for (VariableDeclaration variable in variables) {
         if (variable.initializer == null) {
           if (node.isConst) {
             _errorReporter.reportErrorForNode(CompileTimeErrorCode.CONST_NOT_INITIALIZED, variable.name, [variable.name.name]);
           } else if (node.isFinal) {
             _errorReporter.reportErrorForNode(StaticWarningCode.FINAL_NOT_INITIALIZED, variable.name, [variable.name.name]);
           }
           foundError = true;
         }
       }
     }
     return foundError;
   }
 
   /**
    * This verifies that final fields that are declared, without any constructors in the enclosing
    * class, are initialized. Cases in which there is at least one constructor are handled at the end
    * of [checkForAllFinalInitializedErrorCodes].
    *
    * @param node the class declaration to test
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#CONST_NOT_INITIALIZED
-   * @see StaticWarningCode#FINAL_NOT_INITIALIZED
+   * See [CompileTimeErrorCode.CONST_NOT_INITIALIZED], and
+   * [StaticWarningCode.FINAL_NOT_INITIALIZED].
    */
   bool _checkForFinalNotInitializedInClass(ClassDeclaration node) {
     NodeList<ClassMember> classMembers = node.members;
     for (ClassMember classMember in classMembers) {
       if (classMember is ConstructorDeclaration) {
         return false;
       }
     }
     bool foundError = false;
     for (ClassMember classMember in classMembers) {
       if (classMember is FieldDeclaration
           && _checkForFinalNotInitialized(classMember.fields)) {
         foundError = true;
       }
     }
     return foundError;
   }
 
   /**
    * This verifies that the passed implements clause does not implement classes that are deferred.
    *
    * @param node the implements clause to test
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#IMPLEMENTS_DEFERRED_CLASS
+   * See [CompileTimeErrorCode.IMPLEMENTS_DEFERRED_CLASS].
    */
   bool _checkForImplementsDeferredClass(ImplementsClause node) {
     if (node == null) {
       return false;
     }
     bool foundError = false;
     for (TypeName type in node.interfaces) {
       if (_checkForExtendsOrImplementsDeferredClass(
           type,
           CompileTimeErrorCode.IMPLEMENTS_DEFERRED_CLASS)) {
         foundError = true;
       }
     }
     return foundError;
   }
 
   /**
    * This verifies that the passed implements clause does not implement classes such as 'num' or
    * 'String'.
    *
    * @param node the implements clause to test
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#IMPLEMENTS_DISALLOWED_CLASS
+   * See [CompileTimeErrorCode.IMPLEMENTS_DISALLOWED_CLASS].
    */
   bool _checkForImplementsDisallowedClass(ImplementsClause node) {
     if (node == null) {
       return false;
     }
     bool foundError = false;
     for (TypeName type in node.interfaces) {
       if (_checkForExtendsOrImplementsDisallowedClass(
           type,
           CompileTimeErrorCode.IMPLEMENTS_DISALLOWED_CLASS)) {
         foundError = true;
       }
     }
     return foundError;
   }
 
   /**
    * This verifies that if the passed identifier is part of constructor initializer, then it does
    * not reference implicitly 'this' expression.
    *
    * @param node the simple identifier to test
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#IMPLICIT_THIS_REFERENCE_IN_INITIALIZER
-   * @see CompileTimeErrorCode#INSTANCE_MEMBER_ACCESS_FROM_STATIC TODO(scheglov) rename thid method
+   * See [CompileTimeErrorCode.IMPLICIT_THIS_REFERENCE_IN_INITIALIZER], and
+   * [CompileTimeErrorCode.INSTANCE_MEMBER_ACCESS_FROM_STATIC].
+   * TODO(scheglov) rename thid method
    */
   bool _checkForImplicitThisReferenceInInitializer(SimpleIdentifier node) {
     if (!_isInConstructorInitializer && !_isInStaticMethod && !_isInFactory && !_isInInstanceVariableInitializer && !_isInStaticVariableDeclaration) {
       return false;
     }
     // prepare element
     Element element = node.staticElement;
     if (!(element is MethodElement || element is PropertyAccessorElement)) {
       return false;
     }
@@ skipping 43 matching lines @@
     return true;
   }
 
   /**
    * This verifies the passed import has unique name among other imported libraries.
    *
    * @param node the import directive to evaluate
    * @param importElement the [ImportElement] retrieved from the node, if the element in the
    *          node was `null`, then this method is not called
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#IMPORT_DUPLICATED_LIBRARY_NAME
+   * See [CompileTimeErrorCode.IMPORT_DUPLICATED_LIBRARY_NAME].
    */
   bool _checkForImportDuplicateLibraryName(ImportDirective node, ImportElement importElement) {
     // prepare imported library
     LibraryElement nodeLibrary = importElement.importedLibrary;
     if (nodeLibrary == null) {
       return false;
     }
     String name = nodeLibrary.name;
     // check if there is another imported library with the same name
     LibraryElement prevLibrary = _nameToImportElement[name];
@@ skipping 23 matching lines @@
   }
 
   /**
    * Check that if the visiting library is not system, then any passed library should not be SDK
    * internal library.
    *
    * @param node the import directive to evaluate
    * @param importElement the [ImportElement] retrieved from the node, if the element in the
    *          node was `null`, then this method is not called
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#IMPORT_INTERNAL_LIBRARY
+   * See [CompileTimeErrorCode.IMPORT_INTERNAL_LIBRARY].
    */
   bool _checkForImportInternalLibrary(ImportDirective node, ImportElement importElement) {
     if (_isInSystemLibrary) {
       return false;
     }
     // should be private
     DartSdk sdk = _currentLibrary.context.sourceFactory.dartSdk;
     String uri = importElement.uri;
     SdkLibrary sdkLibrary = sdk.getSdkLibrary(uri);
     if (sdkLibrary == null) {
       return false;
     }
     if (!sdkLibrary.isInternal) {
       return false;
     }
     // report problem
     _errorReporter.reportErrorForNode(CompileTimeErrorCode.IMPORT_INTERNAL_LIBRARY, node, [node.uri]);
     return true;
   }
 
   /**
    * For each class declaration, this method is called which verifies that all inherited members are
    * inherited consistently.
    *
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticTypeWarningCode#INCONSISTENT_METHOD_INHERITANCE
+   * See [StaticTypeWarningCode.INCONSISTENT_METHOD_INHERITANCE].
    */
   bool _checkForInconsistentMethodInheritance() {
     // Ensure that the inheritance manager has a chance to generate all errors we may care about,
     // note that we ensure that the interfaces data since there are no errors.
     _inheritanceManager.getMapOfMembersInheritedFromInterfaces(_enclosingClass);
     HashSet<AnalysisError> errors = _inheritanceManager.getErrors(_enclosingClass);
     if (errors == null || errors.isEmpty) {
       return false;
     }
     for (AnalysisError error in errors) {
       _errorReporter.reportError(error);
     }
     return true;
   }
 
   /**
    * This checks the given "typeReference" is not a type reference and that then the "name" is
    * reference to an instance member.
    *
    * @param typeReference the resolved [ClassElement] of the left hand side of the expression,
    *          or `null`, aka, the class element of 'C' in 'C.x', see
    *          [getTypeReference]
    * @param name the accessed name to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticTypeWarningCode#INSTANCE_ACCESS_TO_STATIC_MEMBER
+   * See [StaticTypeWarningCode.INSTANCE_ACCESS_TO_STATIC_MEMBER].
    */
   bool _checkForInstanceAccessToStaticMember(ClassElement typeReference, SimpleIdentifier name) {
     // OK, in comment
     if (_isInComment) {
       return false;
     }
     // OK, target is a type
     if (typeReference != null) {
       return false;
     }
@@ skipping 16 matching lines @@
     return true;
   }
 
   /**
    * This checks whether the given [executableElement] collides with the name of a static
    * method in one of its superclasses, and reports the appropriate warning if it does.
    *
    * @param executableElement the method to check.
    * @param errorNameTarget the node to report problems on.
    * @return `true` if and only if a warning was generated.
-   * @see StaticTypeWarningCode#INSTANCE_METHOD_NAME_COLLIDES_WITH_SUPERCLASS_STATIC
+   * See [StaticTypeWarningCode.INSTANCE_METHOD_NAME_COLLIDES_WITH_SUPERCLASS_STATIC].
    */
   bool _checkForInstanceMethodNameCollidesWithSuperclassStatic(ExecutableElement executableElement, SimpleIdentifier errorNameTarget) {
     String executableElementName = executableElement.name;
     if (executableElement is! PropertyAccessorElement && !executableElement.isOperator) {
       HashSet<ClassElement> visitedClasses = new HashSet<ClassElement>();
       InterfaceType superclassType = _enclosingClass.supertype;
       ClassElement superclassElement = superclassType == null ? null : superclassType.element;
       bool executableElementPrivate = Identifier.isPrivateName(executableElementName);
       while (superclassElement != null && !visitedClasses.contains(superclassElement)) {
         visitedClasses.add(superclassElement);
@@ skipping 43 matching lines @@
     return false;
   }
 
   /**
    * This verifies that an 'int' can be assigned to the parameter corresponding to the given
    * expression. This is used for prefix and postfix expressions where the argument value is
    * implicit.
    *
    * @param argument the expression to which the operator is being applied
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticWarningCode#ARGUMENT_TYPE_NOT_ASSIGNABLE
+   * See [StaticWarningCode.ARGUMENT_TYPE_NOT_ASSIGNABLE].
    */
   bool _checkForIntNotAssignable(Expression argument) {
     if (argument == null) {
       return false;
     }
     ParameterElement staticParameterElement = argument.staticParameterElement;
     DartType staticParameterType = staticParameterElement == null ? null : staticParameterElement.type;
     return _checkForArgumentTypeNotAssignable(argument, staticParameterType, _intType, StaticWarningCode.ARGUMENT_TYPE_NOT_ASSIGNABLE);
   }
 
   /**
    * This verifies that the passed [Annotation] isn't defined in a deferred library.
    *
    * @param node the [Annotation]
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode.INVALID_ANNOTATION_FROM_DEFERRED_LIBRARY
+   * See [CompileTimeErrorCode.INVALID_ANNOTATION_FROM_DEFERRED_LIBRARY].
    */
   bool _checkForInvalidAnnotationFromDeferredLibrary(Annotation node) {
     Identifier nameIdentifier = node.name;
     if (nameIdentifier is PrefixedIdentifier) {
       if (nameIdentifier.isDeferred) {
         _errorReporter.reportErrorForNode(CompileTimeErrorCode.INVALID_ANNOTATION_FROM_DEFERRED_LIBRARY, node.name, []);
         return true;
       }
     }
     return false;
   }
 
   /**
    * This verifies that the passed left hand side and right hand side represent a valid assignment.
    *
    * @param lhs the left hand side expression
    * @param rhs the right hand side expression
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticTypeWarningCode#INVALID_ASSIGNMENT
+   * See [StaticTypeWarningCode.INVALID_ASSIGNMENT].
    */
   bool _checkForInvalidAssignment(Expression lhs, Expression rhs) {
     if (lhs == null || rhs == null) {
       return false;
     }
     VariableElement leftVariableElement = getVariableElement(lhs);
     DartType leftType = (leftVariableElement == null) ? getStaticType(lhs) : leftVariableElement.type;
     DartType staticRightType = getStaticType(rhs);
     if (!staticRightType.isAssignableTo(leftType)) {
       _errorReporter.reportTypeErrorForNode(StaticTypeWarningCode.INVALID_ASSIGNMENT, rhs, [staticRightType, leftType]);
       return true;
     }
     return false;
   }
 
   /**
    * Given an assignment using a compound assignment operator, this verifies that the given
    * assignment is valid.
    *
    * @param node the assignment expression being tested
    * @param lhs the left hand side expression
    * @param rhs the right hand side expression
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticTypeWarningCode#INVALID_ASSIGNMENT
+   * See [StaticTypeWarningCode.INVALID_ASSIGNMENT].
    */
   bool _checkForInvalidCompoundAssignment(AssignmentExpression node, Expression lhs, Expression rhs) {
     if (lhs == null) {
       return false;
     }
     VariableElement leftVariableElement = getVariableElement(lhs);
     DartType leftType = (leftVariableElement == null) ? getStaticType(lhs) : leftVariableElement.type;
     MethodElement invokedMethod = node.staticElement;
     if (invokedMethod == null) {
       return false;
@@ skipping 46 matching lines @@
       return true;
     }
     return false;
   }
 
   /**
    * This verifies that the usage of the passed 'this' is valid.
    *
    * @param node the 'this' expression to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#INVALID_REFERENCE_TO_THIS
+   * See [CompileTimeErrorCode.INVALID_REFERENCE_TO_THIS].
    */
   bool _checkForInvalidReferenceToThis(ThisExpression node) {
     if (!_isThisInValidContext(node)) {
       _errorReporter.reportErrorForNode(CompileTimeErrorCode.INVALID_REFERENCE_TO_THIS, node, []);
       return true;
     }
     return false;
   }
 
   /**
    * Checks to ensure that the passed [ListLiteral] or [MapLiteral] does not have a type
    * parameter as a type argument.
    *
    * @param arguments a non-`null`, non-empty [TypeName] node list from the respective
    *          [ListLiteral] or [MapLiteral]
-   * @param errorCode either [CompileTimeErrorCode#INVALID_TYPE_ARGUMENT_IN_CONST_LIST] or
-   *          [CompileTimeErrorCode#INVALID_TYPE_ARGUMENT_IN_CONST_MAP]
+   * @param errorCode either [CompileTimeErrorCode.INVALID_TYPE_ARGUMENT_IN_CONST_LIST] or
+   *          [CompileTimeErrorCode.INVALID_TYPE_ARGUMENT_IN_CONST_MAP]
    * @return `true` if and only if an error code is generated on the passed node
    */
   bool _checkForInvalidTypeArgumentInConstTypedLiteral(NodeList<TypeName> arguments, ErrorCode errorCode) {
     bool foundError = false;
     for (TypeName typeName in arguments) {
       if (typeName.type is TypeParameterType) {
         _errorReporter.reportErrorForNode(errorCode, typeName, [typeName.name]);
         foundError = true;
       }
     }
     return foundError;
   }
 
   /**
    * This verifies that the elements given [ListLiteral] are subtypes of the specified element
    * type.
    *
    * @param node the list literal to evaluate
    * @param typeArguments the type arguments, always non-`null`
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#LIST_ELEMENT_TYPE_NOT_ASSIGNABLE
-   * @see StaticWarningCode#LIST_ELEMENT_TYPE_NOT_ASSIGNABLE
+   * See [CompileTimeErrorCode.LIST_ELEMENT_TYPE_NOT_ASSIGNABLE], and
+   * [StaticWarningCode.LIST_ELEMENT_TYPE_NOT_ASSIGNABLE].
    */
   bool _checkForListElementTypeNotAssignable(ListLiteral node, TypeArgumentList typeArguments) {
     NodeList<TypeName> typeNames = typeArguments.arguments;
     if (typeNames.length < 1) {
       return false;
     }
     DartType listElementType = typeNames[0].type;
     // Check every list element.
     bool hasProblems = false;
     for (Expression element in node.elements) {
@@ skipping 17 matching lines @@
     return hasProblems;
   }
 
   /**
    * This verifies that the key/value of entries of the given [MapLiteral] are subtypes of the
    * key/value types specified in the type arguments.
    *
    * @param node the map literal to evaluate
    * @param typeArguments the type arguments, always non-`null`
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#MAP_KEY_TYPE_NOT_ASSIGNABLE
-   * @see CompileTimeErrorCode#MAP_VALUE_TYPE_NOT_ASSIGNABLE
-   * @see StaticWarningCode#MAP_KEY_TYPE_NOT_ASSIGNABLE
-   * @see StaticWarningCode#MAP_VALUE_TYPE_NOT_ASSIGNABLE
+   * See [CompileTimeErrorCode.MAP_KEY_TYPE_NOT_ASSIGNABLE],
+   * [CompileTimeErrorCode.MAP_VALUE_TYPE_NOT_ASSIGNABLE],
+   * [StaticWarningCode.MAP_KEY_TYPE_NOT_ASSIGNABLE], and
+   * [StaticWarningCode.MAP_VALUE_TYPE_NOT_ASSIGNABLE].
    */
   bool _checkForMapTypeNotAssignable(MapLiteral node, TypeArgumentList typeArguments) {
     // Prepare maps key/value types.
     NodeList<TypeName> typeNames = typeArguments.arguments;
     if (typeNames.length < 2) {
       return false;
     }
     DartType keyType = typeNames[0].type;
     DartType valueType = typeNames[1].type;
     // Check every map entry.
@@ skipping 32 matching lines @@
       }
     }
     return hasProblems;
   }
 
   /**
    * This verifies that the [enclosingClass] does not define members with the same name as
    * the enclosing class.
    *
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#MEMBER_WITH_CLASS_NAME
+   * See [CompileTimeErrorCode.MEMBER_WITH_CLASS_NAME].
    */
   bool _checkForMemberWithClassName() {
     if (_enclosingClass == null) {
       return false;
     }
     String className = _enclosingClass.name;
     if (className == null) {
       return false;
     }
     bool problemReported = false;
     // check accessors
     for (PropertyAccessorElement accessor in _enclosingClass.accessors) {
       if (className == accessor.name) {
         _errorReporter.reportErrorForOffset(CompileTimeErrorCode.MEMBER_WITH_CLASS_NAME, accessor.nameOffset, className.length, []);
         problemReported = true;
       }
     }
     // don't check methods, they would be constructors
     // done
     return problemReported;
   }
 
   /**
    * Check to make sure that all similarly typed accessors are of the same type (including inherited
    * accessors).
    *
    * @param node the accessor currently being visited
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticWarningCode.MISMATCHED_GETTER_AND_SETTER_TYPES
-   * @see StaticWarningCode.MISMATCHED_GETTER_AND_SETTER_TYPES_FROM_SUPERTYPE
+   * See [StaticWarningCode.MISMATCHED_GETTER_AND_SETTER_TYPES], and
+   * [StaticWarningCode.MISMATCHED_GETTER_AND_SETTER_TYPES_FROM_SUPERTYPE].
    */
   bool _checkForMismatchedAccessorTypes(Declaration accessorDeclaration, String accessorTextName) {
     ExecutableElement accessorElement = accessorDeclaration.element as ExecutableElement;
     if (accessorElement is! PropertyAccessorElement) {
       return false;
     }
     PropertyAccessorElement propertyAccessorElement = accessorElement as PropertyAccessorElement;
     PropertyAccessorElement counterpartAccessor = null;
     ClassElement enclosingClassForCounterpart = null;
     if (propertyAccessorElement.isGetter) {
@@ skipping 109 matching lines @@
     }
     return true;
   }
 
   /**
    * This verifies that the given function body does not contain return statements that both have
    * and do not have return values.
    *
    * @param node the function body being tested
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticWarningCode#MIXED_RETURN_TYPES
+   * See [StaticWarningCode.MIXED_RETURN_TYPES].
    */
   bool _checkForMixedReturns(BlockFunctionBody node) {
     if (_hasReturnWithoutValue) {
       return false;
     }
     int withCount = _returnsWith.length;
     int withoutCount = _returnsWithout.length;
     if (withCount > 0 && withoutCount > 0) {
       for (int i = 0; i < withCount; i++) {
         _errorReporter.reportErrorForToken(StaticWarningCode.MIXED_RETURN_TYPES, _returnsWith[i].keyword, []);
       }
       for (int i = 0; i < withoutCount; i++) {
         _errorReporter.reportErrorForToken(StaticWarningCode.MIXED_RETURN_TYPES, _returnsWithout[i].keyword, []);
       }
       return true;
     }
     return false;
   }
 
   /**
    * This verifies that the passed mixin does not have an explicitly declared constructor.
    *
    * @param mixinName the node to report problem on
    * @param mixinElement the mixing to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#MIXIN_DECLARES_CONSTRUCTOR
+   * See [CompileTimeErrorCode.MIXIN_DECLARES_CONSTRUCTOR].
    */
   bool _checkForMixinDeclaresConstructor(TypeName mixinName, ClassElement mixinElement) {
     for (ConstructorElement constructor in mixinElement.constructors) {
       if (!constructor.isSynthetic && !constructor.isFactory) {
         _errorReporter.reportErrorForNode(CompileTimeErrorCode.MIXIN_DECLARES_CONSTRUCTOR, mixinName, [mixinElement.name]);
         return true;
       }
     }
     return false;
   }
 
   /**
    * This verifies that the passed mixin has the 'Object' superclass.
    *
    * @param mixinName the node to report problem on
    * @param mixinElement the mixing to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#MIXIN_INHERITS_FROM_NOT_OBJECT
+   * See [CompileTimeErrorCode.MIXIN_INHERITS_FROM_NOT_OBJECT].
    */
   bool _checkForMixinInheritsNotFromObject(TypeName mixinName, ClassElement mixinElement) {
     InterfaceType mixinSupertype = mixinElement.supertype;
     if (mixinSupertype != null) {
       if (!mixinSupertype.isObject || !mixinElement.isTypedef && mixinElement.mixins.length != 0) {
         _errorReporter.reportErrorForNode(CompileTimeErrorCode.MIXIN_INHERITS_FROM_NOT_OBJECT, mixinName, [mixinElement.name]);
         return true;
       }
     }
     return false;
   }
 
   /**
    * This verifies that the passed mixin does not reference 'super'.
    *
    * @param mixinName the node to report problem on
    * @param mixinElement the mixing to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#MIXIN_REFERENCES_SUPER
+   * See [CompileTimeErrorCode.MIXIN_REFERENCES_SUPER].
    */
   bool _checkForMixinReferencesSuper(TypeName mixinName, ClassElement mixinElement) {
     if (mixinElement.hasReferenceToSuper) {
       _errorReporter.reportErrorForNode(CompileTimeErrorCode.MIXIN_REFERENCES_SUPER, mixinName, [mixinElement.name]);
     }
     return false;
   }
 
   /**
    * This verifies that the passed constructor has at most one 'super' initializer.
    *
    * @param node the constructor declaration to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#MULTIPLE_SUPER_INITIALIZERS
+   * See [CompileTimeErrorCode.MULTIPLE_SUPER_INITIALIZERS].
    */
   bool _checkForMultipleSuperInitializers(ConstructorDeclaration node) {
     int numSuperInitializers = 0;
     for (ConstructorInitializer initializer in node.initializers) {
       if (initializer is SuperConstructorInvocation) {
         numSuperInitializers++;
         if (numSuperInitializers > 1) {
           _errorReporter.reportErrorForNode(CompileTimeErrorCode.MULTIPLE_SUPER_INITIALIZERS, initializer, []);
         }
       }
     }
     return numSuperInitializers > 0;
   }
 
   /**
    * Checks to ensure that native function bodies can only in SDK code.
    *
    * @param node the native function body to test
    * @return `true` if and only if an error code is generated on the passed node
-   * @see ParserErrorCode#NATIVE_FUNCTION_BODY_IN_NON_SDK_CODE
+   * See [ParserErrorCode.NATIVE_FUNCTION_BODY_IN_NON_SDK_CODE].
    */
   bool _checkForNativeFunctionBodyInNonSDKCode(NativeFunctionBody node) {
     if (!_isInSystemLibrary && !_hasExtUri) {
       _errorReporter.reportErrorForNode(ParserErrorCode.NATIVE_FUNCTION_BODY_IN_NON_SDK_CODE, node, []);
       return true;
     }
     return false;
   }
 
   /**
    * This verifies that the passed 'new' instance creation expression invokes existing constructor.
    *
    * This method assumes that the instance creation was tested to be 'new' before being called.
    *
    * @param node the instance creation expression to evaluate
    * @param constructorName the constructor name, always non-`null`
    * @param typeName the name of the type defining the constructor, always non-`null`
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticWarningCode#NEW_WITH_UNDEFINED_CONSTRUCTOR
+   * See [StaticWarningCode.NEW_WITH_UNDEFINED_CONSTRUCTOR].
    */
   bool _checkForNewWithUndefinedConstructor(InstanceCreationExpression node, ConstructorName constructorName, TypeName typeName) {
     // OK if resolved
     if (node.staticElement != null) {
       return false;
     }
     DartType type = typeName.type;
     if (type is InterfaceType) {
       ClassElement element = type.element;
       if (element != null && element.isEnum) {
@@ skipping 12 matching lines @@
     }
     return true;
   }
 
   /**
    * This checks that if the passed class declaration implicitly calls default constructor of its
    * superclass, there should be such default constructor - implicit or explicit.
    *
    * @param node the [ClassDeclaration] to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#NO_DEFAULT_SUPER_CONSTRUCTOR_IMPLICIT
+   * See [CompileTimeErrorCode.NO_DEFAULT_SUPER_CONSTRUCTOR_IMPLICIT].
    */
   bool _checkForNoDefaultSuperConstructorImplicit(ClassDeclaration node) {
     // do nothing if there is explicit constructor
     List<ConstructorElement> constructors = _enclosingClass.constructors;
     if (!constructors[0].isSynthetic) {
       return false;
     }
     // prepare super
     InterfaceType superType = _enclosingClass.supertype;
     if (superType == null) {
@@ skipping 16 matching lines @@
     return true;
   }
 
   /**
    * This checks that passed class declaration overrides all members required by its superclasses
    * and interfaces.
    *
    * @param classNameNode the [SimpleIdentifier] to be used if there is a violation, this is
    *          either the named from the [ClassDeclaration] or from the [ClassTypeAlias].
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticWarningCode#NON_ABSTRACT_CLASS_INHERITS_ABSTRACT_MEMBER_ONE
-   * @see StaticWarningCode#NON_ABSTRACT_CLASS_INHERITS_ABSTRACT_MEMBER_TWO
-   * @see StaticWarningCode#NON_ABSTRACT_CLASS_INHERITS_ABSTRACT_MEMBER_THREE
-   * @see StaticWarningCode#NON_ABSTRACT_CLASS_INHERITS_ABSTRACT_MEMBER_FOUR
-   * @see StaticWarningCode#NON_ABSTRACT_CLASS_INHERITS_ABSTRACT_MEMBER_FIVE_PLUS
+   * See [StaticWarningCode.NON_ABSTRACT_CLASS_INHERITS_ABSTRACT_MEMBER_ONE],
+   * [StaticWarningCode.NON_ABSTRACT_CLASS_INHERITS_ABSTRACT_MEMBER_TWO],
+   * [StaticWarningCode.NON_ABSTRACT_CLASS_INHERITS_ABSTRACT_MEMBER_THREE],
+   * [StaticWarningCode.NON_ABSTRACT_CLASS_INHERITS_ABSTRACT_MEMBER_FOUR], and
+   * [StaticWarningCode.NON_ABSTRACT_CLASS_INHERITS_ABSTRACT_MEMBER_FIVE_PLUS].
    */
   bool _checkForNonAbstractClassInheritsAbstractMember(SimpleIdentifier classNameNode) {
     if (_enclosingClass.isAbstract) {
       return false;
     }
     //
     // Store in local sets the set of all method and accessor names
     //
     List<MethodElement> methods = _enclosingClass.methods;
     for (MethodElement method in methods) {
@@ skipping 117 matching lines @@
     _errorReporter.reportError(analysisError);
     return true;
   }
 
   /**
    * Checks to ensure that the expressions that need to be of type bool, are. Otherwise an error is
    * reported on the expression.
    *
    * @param condition the conditional expression to test
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticTypeWarningCode#NON_BOOL_CONDITION
+   * See [StaticTypeWarningCode.NON_BOOL_CONDITION].
    */
   bool _checkForNonBoolCondition(Expression condition) {
     DartType conditionType = getStaticType(condition);
     if (conditionType != null && !conditionType.isAssignableTo(_boolType)) {
       _errorReporter.reportErrorForNode(StaticTypeWarningCode.NON_BOOL_CONDITION, condition, []);
       return true;
     }
     return false;
   }
 
   /**
    * This verifies that the passed assert statement has either a 'bool' or '() -> bool' input.
    *
    * @param node the assert statement to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticTypeWarningCode#NON_BOOL_EXPRESSION
+   * See [StaticTypeWarningCode.NON_BOOL_EXPRESSION].
    */
   bool _checkForNonBoolExpression(AssertStatement node) {
     Expression expression = node.condition;
     DartType type = getStaticType(expression);
     if (type is InterfaceType) {
       if (!type.isAssignableTo(_boolType)) {
         _errorReporter.reportErrorForNode(StaticTypeWarningCode.NON_BOOL_EXPRESSION, expression, []);
         return true;
       }
     } else if (type is FunctionType) {
       FunctionType functionType = type;
       if (functionType.typeArguments.length == 0 && !functionType.returnType.isAssignableTo(_boolType)) {
         _errorReporter.reportErrorForNode(StaticTypeWarningCode.NON_BOOL_EXPRESSION, expression, []);
         return true;
       }
     }
     return false;
   }
 
   /**
    * Checks to ensure that the given expression is assignable to bool.
    *
    * @param expression the expression expression to test
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticTypeWarningCode#NON_BOOL_NEGATION_EXPRESSION
+   * See [StaticTypeWarningCode.NON_BOOL_NEGATION_EXPRESSION].
    */
   bool _checkForNonBoolNegationExpression(Expression expression) {
     DartType conditionType = getStaticType(expression);
     if (conditionType != null && !conditionType.isAssignableTo(_boolType)) {
       _errorReporter.reportErrorForNode(StaticTypeWarningCode.NON_BOOL_NEGATION_EXPRESSION, expression, []);
       return true;
     }
     return false;
   }
 
   /**
    * This verifies the passed map literal either:
    * * has `const modifier`
    * * has explicit type arguments
    * * is not start of the statement
    *
    * @param node the map literal to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#NON_CONST_MAP_AS_EXPRESSION_STATEMENT
+   * See [CompileTimeErrorCode.NON_CONST_MAP_AS_EXPRESSION_STATEMENT].
    */
   bool _checkForNonConstMapAsExpressionStatement(MapLiteral node) {
     // "const"
     if (node.constKeyword != null) {
       return false;
     }
     // has type arguments
     if (node.typeArguments != null) {
       return false;
     }
@@ skipping 10 matching lines @@
     _errorReporter.reportErrorForNode(CompileTimeErrorCode.NON_CONST_MAP_AS_EXPRESSION_STATEMENT, node, []);
     return true;
   }
 
   /**
    * This verifies the passed method declaration of operator `[]=`, has `void` return
    * type.
    *
    * @param node the method declaration to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticWarningCode#NON_VOID_RETURN_FOR_OPERATOR
+   * See [StaticWarningCode.NON_VOID_RETURN_FOR_OPERATOR].
    */
   bool _checkForNonVoidReturnTypeForOperator(MethodDeclaration node) {
     // check that []= operator
     SimpleIdentifier name = node.name;
     if (name.name != "[]=") {
       return false;
     }
     // check return type
     TypeName typeName = node.returnType;
     if (typeName != null) {
       DartType type = typeName.type;
       if (type != null && !type.isVoid) {
         _errorReporter.reportErrorForNode(StaticWarningCode.NON_VOID_RETURN_FOR_OPERATOR, typeName, []);
       }
     }
     // no warning
     return false;
   }
 
   /**
    * This verifies the passed setter has no return type or the `void` return type.
    *
    * @param typeName the type name to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticWarningCode#NON_VOID_RETURN_FOR_SETTER
+   * See [StaticWarningCode.NON_VOID_RETURN_FOR_SETTER].
    */
   bool _checkForNonVoidReturnTypeForSetter(TypeName typeName) {
     if (typeName != null) {
       DartType type = typeName.type;
       if (type != null && !type.isVoid) {
         _errorReporter.reportErrorForNode(StaticWarningCode.NON_VOID_RETURN_FOR_SETTER, typeName, []);
       }
     }
     return false;
   }
 
   /**
    * This verifies the passed operator-method declaration, does not have an optional parameter.
    *
    * This method assumes that the method declaration was tested to be an operator declaration before
    * being called.
    *
    * @param node the method declaration to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#OPTIONAL_PARAMETER_IN_OPERATOR
+   * See [CompileTimeErrorCode.OPTIONAL_PARAMETER_IN_OPERATOR].
    */
   bool _checkForOptionalParameterInOperator(MethodDeclaration node) {
     FormalParameterList parameterList = node.parameters;
     if (parameterList == null) {
       return false;
     }
     bool foundError = false;
     NodeList<FormalParameter> formalParameters = parameterList.parameters;
     for (FormalParameter formalParameter in formalParameters) {
       if (formalParameter.kind.isOptional) {
         _errorReporter.reportErrorForNode(CompileTimeErrorCode.OPTIONAL_PARAMETER_IN_OPERATOR, formalParameter, []);
         foundError = true;
       }
     }
     return foundError;
   }
 
   /**
    * This checks for named optional parameters that begin with '_'.
    *
    * @param node the default formal parameter to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#PRIVATE_OPTIONAL_PARAMETER
+   * See [CompileTimeErrorCode.PRIVATE_OPTIONAL_PARAMETER].
    */
   bool _checkForPrivateOptionalParameter(FormalParameter node) {
     // should be named parameter
     if (node.kind != ParameterKind.NAMED) {
       return false;
     }
     // name should start with '_'
     SimpleIdentifier name = node.identifier;
     if (name.isSynthetic || !StringUtilities.startsWithChar(name.name, 0x5F)) {
       return false;
     }
     // report problem
     _errorReporter.reportErrorForNode(CompileTimeErrorCode.PRIVATE_OPTIONAL_PARAMETER, node, []);
     return true;
   }
 
   /**
    * This checks if the passed constructor declaration is the redirecting generative constructor and
    * references itself directly or indirectly.
    *
    * @param node the constructor declaration to evaluate
    * @param constructorElement the constructor element
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#RECURSIVE_CONSTRUCTOR_REDIRECT
+   * See [CompileTimeErrorCode.RECURSIVE_CONSTRUCTOR_REDIRECT].
    */
   bool _checkForRecursiveConstructorRedirect(ConstructorDeclaration node, ConstructorElement constructorElement) {
     // we check generative constructor here
     if (node.factoryKeyword != null) {
       return false;
     }
     // try to find redirecting constructor invocation and analyzer it for recursion
     for (ConstructorInitializer initializer in node.initializers) {
       if (initializer is RedirectingConstructorInvocation) {
         // OK if no cycle
         if (!_hasRedirectingFactoryConstructorCycle(constructorElement)) {
           return false;
         }
         // report error
         _errorReporter.reportErrorForNode(CompileTimeErrorCode.RECURSIVE_CONSTRUCTOR_REDIRECT, initializer, []);
         return true;
       }
     }
     // OK, no redirecting constructor invocation
     return false;
   }
 
   /**
    * This checks if the passed constructor declaration has redirected constructor and references
    * itself directly or indirectly.
    *
    * @param node the constructor declaration to evaluate
    * @param constructorElement the constructor element
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#RECURSIVE_FACTORY_REDIRECT
+   * See [CompileTimeErrorCode.RECURSIVE_FACTORY_REDIRECT].
    */
   bool _checkForRecursiveFactoryRedirect(ConstructorDeclaration node, ConstructorElement constructorElement) {
     // prepare redirected constructor
     ConstructorName redirectedConstructorNode = node.redirectedConstructor;
     if (redirectedConstructorNode == null) {
       return false;
     }
     // OK if no cycle
     if (!_hasRedirectingFactoryConstructorCycle(constructorElement)) {
       return false;
     }
     // report error
     _errorReporter.reportErrorForNode(CompileTimeErrorCode.RECURSIVE_FACTORY_REDIRECT, redirectedConstructorNode, []);
     return true;
   }
 
   /**
    * This checks the class declaration is not a superinterface to itself.
    *
    * @param classElt the class element to test
    * @return `true` if and only if an error code is generated on the passed element
-   * @see CompileTimeErrorCode#RECURSIVE_INTERFACE_INHERITANCE
-   * @see CompileTimeErrorCode#RECURSIVE_INTERFACE_INHERITANCE_BASE_CASE_EXTENDS
-   * @see CompileTimeErrorCode#RECURSIVE_INTERFACE_INHERITANCE_BASE_CASE_IMPLEMENTS
+   * See [CompileTimeErrorCode.RECURSIVE_INTERFACE_INHERITANCE],
+   * [CompileTimeErrorCode.RECURSIVE_INTERFACE_INHERITANCE_BASE_CASE_EXTENDS], and
+   * [CompileTimeErrorCode.RECURSIVE_INTERFACE_INHERITANCE_BASE_CASE_IMPLEMENTS].
    */
   bool _checkForRecursiveInterfaceInheritance(ClassElement classElt) {
     if (classElt == null) {
       return false;
     }
     return _safeCheckForRecursiveInterfaceInheritance(classElt, new List<ClassElement>());
   }
 
   /**
    * This checks the passed constructor declaration has a valid combination of redirected
    * constructor invocation(s), super constructor invocations and field initializers.
    *
    * @param node the constructor declaration to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#DEFAULT_VALUE_IN_REDIRECTING_FACTORY_CONSTRUCTOR
-   * @see CompileTimeErrorCode#FIELD_INITIALIZER_REDIRECTING_CONSTRUCTOR
-   * @see CompileTimeErrorCode#MULTIPLE_REDIRECTING_CONSTRUCTOR_INVOCATIONS
-   * @see CompileTimeErrorCode#SUPER_IN_REDIRECTING_CONSTRUCTOR
-   * @see CompileTimeErrorCode#REDIRECT_GENERATIVE_TO_NON_GENERATIVE_CONSTRUCTOR
+   * See [CompileTimeErrorCode.DEFAULT_VALUE_IN_REDIRECTING_FACTORY_CONSTRUCTOR],
+   * [CompileTimeErrorCode.FIELD_INITIALIZER_REDIRECTING_CONSTRUCTOR],
+   * [CompileTimeErrorCode.MULTIPLE_REDIRECTING_CONSTRUCTOR_INVOCATIONS],
+   * [CompileTimeErrorCode.SUPER_IN_REDIRECTING_CONSTRUCTOR], and
+   * [CompileTimeErrorCode.REDIRECT_GENERATIVE_TO_NON_GENERATIVE_CONSTRUCTOR].
    */
   bool _checkForRedirectingConstructorErrorCodes(ConstructorDeclaration node) {
     bool errorReported = false;
     //
     // Check for default values in the parameters
     //
     ConstructorName redirectedConstructor = node.redirectedConstructor;
     if (redirectedConstructor != null) {
       for (FormalParameter parameter in node.parameters.parameters) {
         if (parameter is DefaultFormalParameter && parameter.defaultValue != null) {
@@ skipping 46 matching lines @@
     return errorReported;
   }
 
   /**
    * This checks if the passed constructor declaration has redirected constructor and references
    * itself directly or indirectly.
    *
    * @param node the constructor declaration to evaluate
    * @param constructorElement the constructor element
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#REDIRECT_TO_NON_CONST_CONSTRUCTOR
+   * See [CompileTimeErrorCode.REDIRECT_TO_NON_CONST_CONSTRUCTOR].
    */
   bool _checkForRedirectToNonConstConstructor(ConstructorDeclaration node, ConstructorElement constructorElement) {
     // prepare redirected constructor
     ConstructorName redirectedConstructorNode = node.redirectedConstructor;
     if (redirectedConstructorNode == null) {
       return false;
     }
     // prepare element
     if (constructorElement == null) {
       return false;
@@ skipping 14 matching lines @@
     // report error
     _errorReporter.reportErrorForNode(CompileTimeErrorCode.REDIRECT_TO_NON_CONST_CONSTRUCTOR, redirectedConstructorNode, []);
     return true;
   }
 
   /**
    * This checks that the rethrow is inside of a catch clause.
    *
    * @param node the rethrow expression to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#RETHROW_OUTSIDE_CATCH
+   * See [CompileTimeErrorCode.RETHROW_OUTSIDE_CATCH].
    */
   bool _checkForRethrowOutsideCatch(RethrowExpression node) {
     if (!_isInCatchClause) {
       _errorReporter.reportErrorForNode(CompileTimeErrorCode.RETHROW_OUTSIDE_CATCH, node, []);
       return true;
     }
     return false;
   }
 
   /**
    * This checks that if the the given constructor declaration is generative, then it does not have
    * an expression function body.
    *
    * @param node the constructor to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#RETURN_IN_GENERATIVE_CONSTRUCTOR
+   * See [CompileTimeErrorCode.RETURN_IN_GENERATIVE_CONSTRUCTOR].
    */
   bool _checkForReturnInGenerativeConstructor(ConstructorDeclaration node) {
     // ignore factory
     if (node.factoryKeyword != null) {
       return false;
     }
     // block body (with possible return statement) is checked elsewhere
     FunctionBody body = node.body;
     if (body is! ExpressionFunctionBody) {
       return false;
     }
     // report error
     _errorReporter.reportErrorForNode(CompileTimeErrorCode.RETURN_IN_GENERATIVE_CONSTRUCTOR, body, []);
     return true;
   }
 
   /**
    * This checks that a type mis-match between the return type and the expressed return type by the
    * enclosing method or function.
    *
    * This method is called both by [checkForAllReturnStatementErrorCodes]
    * and [visitExpressionFunctionBody].
    *
    * @param returnExpression the returned expression to evaluate
    * @param expectedReturnType the expressed return type by the enclosing method or function
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticTypeWarningCode#RETURN_OF_INVALID_TYPE
+   * See [StaticTypeWarningCode.RETURN_OF_INVALID_TYPE].
    */
   bool _checkForReturnOfInvalidType(Expression returnExpression, DartType expectedReturnType) {
     if (_enclosingFunction == null) {
       return false;
     }
     DartType staticReturnType = getStaticType(returnExpression);
     if (expectedReturnType.isVoid) {
       if (staticReturnType.isVoid || staticReturnType.isDynamic || staticReturnType.isBottom) {
         return false;
       }
@@ skipping 44 matching lines @@
 
   /**
    * This checks the given "typeReference" and that the "name" is not the reference to an instance
    * member.
    *
    * @param typeReference the resolved [ClassElement] of the left hand side of the expression,
    *          or `null`, aka, the class element of 'C' in 'C.x', see
    *          [getTypeReference]
    * @param name the accessed name to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticWarningCode#STATIC_ACCESS_TO_INSTANCE_MEMBER
+   * See [StaticWarningCode.STATIC_ACCESS_TO_INSTANCE_MEMBER].
    */
   bool _checkForStaticAccessToInstanceMember(ClassElement typeReference, SimpleIdentifier name) {
     // OK, target is not a type
     if (typeReference == null) {
       return false;
     }
     // prepare member Element
     Element element = name.staticElement;
     if (element is! ExecutableElement) {
       return false;
     }
     ExecutableElement memberElement = element as ExecutableElement;
     // OK, static
     if (memberElement.isStatic) {
       return false;
     }
     // report problem
     _errorReporter.reportErrorForNode(StaticWarningCode.STATIC_ACCESS_TO_INSTANCE_MEMBER, name, [name.name]);
     return true;
   }
 
   /**
    * This checks that the type of the passed 'switch' expression is assignable to the type of the
    * 'case' members.
    *
    * @param node the 'switch' statement to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticWarningCode#SWITCH_EXPRESSION_NOT_ASSIGNABLE
+   * See [StaticWarningCode.SWITCH_EXPRESSION_NOT_ASSIGNABLE].
    */
   bool _checkForSwitchExpressionNotAssignable(SwitchStatement node) {
     // prepare 'switch' expression type
     Expression expression = node.expression;
     DartType expressionType = getStaticType(expression);
     if (expressionType == null) {
       return false;
     }
     // compare with type of the first 'case'
     NodeList<SwitchMember> members = node.members;
@@ skipping 14 matching lines @@
       return true;
     }
     return false;
   }
 
   /**
    * This verifies that the passed function type alias does not reference itself directly.
    *
    * @param node the function type alias to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#TYPE_ALIAS_CANNOT_REFERENCE_ITSELF
+   * See [CompileTimeErrorCode.TYPE_ALIAS_CANNOT_REFERENCE_ITSELF].
    */
   bool _checkForTypeAliasCannotReferenceItself_function(FunctionTypeAlias node) {
     FunctionTypeAliasElement element = node.element;
     if (!_hasTypedefSelfReference(element)) {
       return false;
     }
     _errorReporter.reportErrorForNode(CompileTimeErrorCode.TYPE_ALIAS_CANNOT_REFERENCE_ITSELF, node, []);
     return true;
   }
 
   /**
    * This verifies that the passed type name is not a deferred type.
    *
    * @param expression the expression to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticWarningCode#TYPE_ANNOTATION_DEFERRED_CLASS
+   * See [StaticWarningCode.TYPE_ANNOTATION_DEFERRED_CLASS].
    */
   bool _checkForTypeAnnotationDeferredClass(TypeName node) {
     if (node != null && node.isDeferred) {
       _errorReporter.reportErrorForNode(StaticWarningCode.TYPE_ANNOTATION_DEFERRED_CLASS, node, [node.name]);
     }
     return false;
   }
 
   /**
    * This verifies that the type arguments in the passed type name are all within their bounds.
    *
    * @param node the [TypeName] to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticTypeWarningCode#TYPE_ARGUMENT_NOT_MATCHING_BOUNDS
+   * See [StaticTypeWarningCode.TYPE_ARGUMENT_NOT_MATCHING_BOUNDS].
    */
   bool _checkForTypeArgumentNotMatchingBounds(TypeName node) {
     if (node.typeArguments == null) {
       return false;
     }
     // prepare Type
     DartType type = node.type;
     if (type == null) {
       return false;
     }
@@ skipping 33 matching lines @@
     }
     return foundError;
   }
 
   /**
    * This checks that if the passed type name is a type parameter being used to define a static
    * member.
    *
    * @param node the type name to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticWarningCode#TYPE_PARAMETER_REFERENCED_BY_STATIC
+   * See [StaticWarningCode.TYPE_PARAMETER_REFERENCED_BY_STATIC].
    */
   bool _checkForTypeParameterReferencedByStatic(TypeName node) {
     if (_isInStaticMethod || _isInStaticVariableDeclaration) {
       DartType type = node.type;
       if (type is TypeParameterType) {
         _errorReporter.reportErrorForNode(StaticWarningCode.TYPE_PARAMETER_REFERENCED_BY_STATIC, node, []);
         return true;
       }
     }
     return false;
   }
 
   /**
    * This checks that if the passed type parameter is a supertype of its bound.
    *
    * @param node the type parameter to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticTypeWarningCode#TYPE_PARAMETER_SUPERTYPE_OF_ITS_BOUND
+   * See [StaticTypeWarningCode.TYPE_PARAMETER_SUPERTYPE_OF_ITS_BOUND].
    */
   bool _checkForTypeParameterSupertypeOfItsBound(TypeParameter node) {
     TypeParameterElement element = node.element;
     // prepare bound
     DartType bound = element.bound;
     if (bound == null) {
       return false;
     }
     // OK, type parameter is not supertype of its bound
     if (!bound.isMoreSpecificThan(element.type)) {
       return false;
     }
     // report problem
     _errorReporter.reportErrorForNode(StaticTypeWarningCode.TYPE_PARAMETER_SUPERTYPE_OF_ITS_BOUND, node, [element.displayName]);
     return true;
   }
 
   /**
    * This checks that if the passed generative constructor has neither an explicit super constructor
    * invocation nor a redirecting constructor invocation, that the superclass has a default
    * generative constructor.
    *
    * @param node the constructor declaration to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#UNDEFINED_CONSTRUCTOR_IN_INITIALIZER_DEFAULT
-   * @see CompileTimeErrorCode#NON_GENERATIVE_CONSTRUCTOR
-   * @see StaticWarningCode#NO_DEFAULT_SUPER_CONSTRUCTOR_EXPLICIT
+   * See [CompileTimeErrorCode.UNDEFINED_CONSTRUCTOR_IN_INITIALIZER_DEFAULT],
+   * [CompileTimeErrorCode.NON_GENERATIVE_CONSTRUCTOR], and
+   * [StaticWarningCode.NO_DEFAULT_SUPER_CONSTRUCTOR_EXPLICIT].
    */
   bool _checkForUndefinedConstructorInInitializerImplicit(ConstructorDeclaration node) {
     //
     // Ignore if the constructor is not generative.
     //
     if (node.factoryKeyword != null) {
       return false;
     }
     //
     // Ignore if the constructor has either an implicit super constructor invocation or a
@@ skipping 37 matching lines @@
     _errorReporter.reportErrorForNode(CompileTimeErrorCode.UNDEFINED_CONSTRUCTOR_IN_INITIALIZER_DEFAULT, node.returnType, [superElement.name]);
     return true;
   }
 
   /**
    * This checks that if the given name is a reference to a static member it is defined in the
    * enclosing class rather than in a superclass.
    *
    * @param name the name to be evaluated
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticTypeWarningCode#UNQUALIFIED_REFERENCE_TO_NON_LOCAL_STATIC_MEMBER
+   * See [StaticTypeWarningCode.UNQUALIFIED_REFERENCE_TO_NON_LOCAL_STATIC_MEMBER].
    */
   bool _checkForUnqualifiedReferenceToNonLocalStaticMember(SimpleIdentifier name) {
     Element element = name.staticElement;
     if (element == null || element is TypeParameterElement) {
       return false;
     }
     Element enclosingElement = element.enclosingElement;
     if (enclosingElement is! ClassElement) {
       return false;
     }
@@ skipping 30 matching lines @@
           if (fieldElement.isSynthetic) {
             _errorReporter.reportErrorForNode(CompileTimeErrorCode.INITIALIZING_FORMAL_FOR_NON_EXISTENT_FIELD, node, [node.identifier.name]);
           } else if (fieldElement.isStatic) {
             _errorReporter.reportErrorForNode(CompileTimeErrorCode.INITIALIZING_FORMAL_FOR_STATIC_FIELD, node, [node.identifier.name]);
           }
         }
       }
     }
     //    else {
     //    // TODO(jwren) Report error, constructor initializer variable is a top level element
-    //    // (Either here or in ErrorVerifier#checkForAllFinalInitializedErrorCodes)
+    //    // (Either here or in ErrorVerifier.checkForAllFinalInitializedErrorCodes)
     //    }
   }
 
   /**
    * This verifies that the given getter does not have a return type of 'void'.
    *
    * @param node the method declaration to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticWarningCode#VOID_RETURN_FOR_GETTER
+   * See [StaticWarningCode.VOID_RETURN_FOR_GETTER].
    */
   bool _checkForVoidReturnType(MethodDeclaration node) {
     TypeName returnType = node.returnType;
     if (returnType == null || returnType.name.name != "void") {
       return false;
     }
     _errorReporter.reportErrorForNode(StaticWarningCode.VOID_RETURN_FOR_GETTER, returnType, []);
     return true;
   }
 
   /**
    * This verifies the passed operator-method declaration, has correct number of parameters.
    *
    * This method assumes that the method declaration was tested to be an operator declaration before
    * being called.
    *
    * @param node the method declaration to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#WRONG_NUMBER_OF_PARAMETERS_FOR_OPERATOR
+   * See [CompileTimeErrorCode.WRONG_NUMBER_OF_PARAMETERS_FOR_OPERATOR].
    */
   bool _checkForWrongNumberOfParametersForOperator(MethodDeclaration node) {
     // prepare number of parameters
     FormalParameterList parameterList = node.parameters;
     if (parameterList == null) {
       return false;
     }
     int numParameters = parameterList.parameters.length;
     // prepare operator name
     SimpleIdentifier nameNode = node.name;
@@ skipping 24 matching lines @@
   }
 
   /**
    * This verifies if the passed setter parameter list have only one required parameter.
    *
    * This method assumes that the method declaration was tested to be a setter before being called.
    *
    * @param setterName the name of the setter to report problems on
    * @param parameterList the parameter list to evaluate
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#WRONG_NUMBER_OF_PARAMETERS_FOR_SETTER
+   * See [CompileTimeErrorCode.WRONG_NUMBER_OF_PARAMETERS_FOR_SETTER].
    */
   bool _checkForWrongNumberOfParametersForSetter(SimpleIdentifier setterName, FormalParameterList parameterList) {
     if (setterName == null) {
       return false;
     }
     if (parameterList == null) {
       return false;
     }
     NodeList<FormalParameter> parameters = parameterList.parameters;
     if (parameters.length != 1 || parameters[0].kind != ParameterKind.REQUIRED) {
       _errorReporter.reportErrorForNode(CompileTimeErrorCode.WRONG_NUMBER_OF_PARAMETERS_FOR_SETTER, setterName, []);
       return true;
     }
     return false;
   }
 
   /**
    * This verifies that if the given class declaration implements the class Function that it has a
    * concrete implementation of the call method.
    *
    * @return `true` if and only if an error code is generated on the passed node
-   * @see StaticWarningCode#FUNCTION_WITHOUT_CALL
+   * See [StaticWarningCode.FUNCTION_WITHOUT_CALL].
    */
   bool _checkImplementsFunctionWithoutCall(ClassDeclaration node) {
     if (node.isAbstract) {
       return false;
     }
     ClassElement classElement = node.element;
     if (classElement == null) {
       return false;
     }
     if (!classElement.type.isSubtypeOf(_typeProvider.functionType)) {
       return false;
     }
     // If there is a noSuchMethod method, then don't report the warning, see dartbug.com/16078
     if (classElement.getMethod(FunctionElement.NO_SUCH_METHOD_METHOD_NAME) != null) {
       return false;
     }
     ExecutableElement callMethod = _inheritanceManager.lookupMember(classElement, "call");
     if (callMethod == null || callMethod is! MethodElement || (callMethod as MethodElement).isAbstract) {
       _errorReporter.reportErrorForNode(StaticWarningCode.FUNCTION_WITHOUT_CALL, node.name, []);
       return true;
     }
     return false;
   }
 
   /**
    * This verifies that the given class declaration does not have the same class in the 'extends'
    * and 'implements' clauses.
    *
    * @return `true` if and only if an error code is generated on the passed node
-   * @see CompileTimeErrorCode#IMPLEMENTS_SUPER_CLASS
+   * See [CompileTimeErrorCode.IMPLEMENTS_SUPER_CLASS].
    */
   bool _checkImplementsSuperClass(ClassDeclaration node) {
     // prepare super type
     InterfaceType superType = _enclosingClass.supertype;
     if (superType == null) {
       return false;
     }
     // prepare interfaces
     ImplementsClause implementsClause = node.implementsClause;
     if (implementsClause == null) {
@@ skipping 80 matching lines @@
     }
     return setterParameters[0].type;
   }
 
   /**
    * Given a list of directives that have the same prefix, generate an error if there is more than
    * one import and any of those imports is deferred.
    *
    * @param directives the list of directives that have the same prefix
    * @return `true` if an error was generated
-   * @see CompileTimeErrorCode#SHARED_DEFERRED_PREFIX
+   * See [CompileTimeErrorCode.SHARED_DEFERRED_PREFIX].
    */
   bool _hasDeferredPrefixCollision(List<ImportDirective> directives) {
     bool foundError = false;
     int count = directives.length;
     if (count > 1) {
       for (int i = 0; i < count; i++) {
         sc.Token deferredToken = directives[i].deferredToken;
         if (deferredToken != null) {
           _errorReporter.reportErrorForToken(CompileTimeErrorCode.SHARED_DEFERRED_PREFIX, deferredToken, []);
           foundError = true;
@@ skipping 206 matching lines @@
   }
 
   bool _isUserDefinedObject(EvaluationResultImpl result) => result == null || (result.value != null && result.value.isUserDefinedObject);
 
   /**
    * This checks the class declaration is not a superinterface to itself.
    *
    * @param classElt the class element to test
    * @param path a list containing the potentially cyclic implements path
    * @return `true` if and only if an error code is generated on the passed element
-   * @see CompileTimeErrorCode#RECURSIVE_INTERFACE_INHERITANCE
-   * @see CompileTimeErrorCode#RECURSIVE_INTERFACE_INHERITANCE_BASE_CASE_EXTENDS
-   * @see CompileTimeErrorCode#RECURSIVE_INTERFACE_INHERITANCE_BASE_CASE_IMPLEMENTS
-   * @see CompileTimeErrorCode#RECURSIVE_INTERFACE_INHERITANCE_BASE_CASE_WITH
+   * See [CompileTimeErrorCode.RECURSIVE_INTERFACE_INHERITANCE],
+   * [CompileTimeErrorCode.RECURSIVE_INTERFACE_INHERITANCE_BASE_CASE_EXTENDS],
+   * [CompileTimeErrorCode.RECURSIVE_INTERFACE_INHERITANCE_BASE_CASE_IMPLEMENTS], and
+   * [CompileTimeErrorCode.RECURSIVE_INTERFACE_INHERITANCE_BASE_CASE_WITH].
    */
   bool _safeCheckForRecursiveInterfaceInheritance(ClassElement classElt, List<ClassElement> path) {
     // Detect error condition.
     int size = path.length;
     // If this is not the base case (size > 0), and the enclosing class is the passed class
     // element then an error an error.
     if (size > 0 && _enclosingClass == classElt) {
       String enclosingClassName = _enclosingClass.displayName;
       if (size > 1) {
         // Construct a string showing the cyclic implements path: "A, B, C, D, A"
@@ skipping 78 matching lines @@
     toCheck.add(type.element);
     // type arguments
     if (type is InterfaceType) {
       InterfaceType interfaceType = type;
       for (DartType typeArgument in interfaceType.typeArguments) {
         _addTypeToCheck(typeArgument);
       }
     }
   }
 }