private Expression ProcessOpenParenExpressionNode(BinaryExpressionNode node) {
bool isDelegateInvoke = false;
Expression leftExpression = BuildExpression(node.LeftChild);
if (leftExpression is LocalExpression) {
Debug.Assert(leftExpression.EvaluatedType.Type == SymbolType.Delegate);
// Handle the implicit delegate invoke scenario by turning the expression
// into an explicit call into the delegate's Invoke method
MemberSymbol invokeMethodSymbol = leftExpression.EvaluatedType.GetMember("Invoke");
Debug.Assert(invokeMethodSymbol != null);
leftExpression = new MemberExpression(leftExpression, invokeMethodSymbol);
isDelegateInvoke = true;
}
if (leftExpression.Type != ExpressionType.Member) {
// A method call was evaluated into a non-member expression as part of building
// the left node. For example, Nullable<T>.GetValueOrDefault() becomes a logical or expression.
return leftExpression;
}
MemberExpression memberExpression = (MemberExpression)leftExpression;
ExpressionListNode argNodes = null;
List<Expression> args = null;
if (node.RightChild != null) {
Debug.Assert(node.RightChild is ExpressionListNode);
argNodes = (ExpressionListNode)node.RightChild;
args = BuildExpressionList(argNodes);
}
MethodExpression methodExpression = null;
if (memberExpression.Member.Type != SymbolType.Method) {
// A non-method member is being used in a method call; the member must be
// a delegate...
Debug.Assert(memberExpression.EvaluatedType.Type == SymbolType.Delegate);
Expression instanceExpression = TransformMemberExpression(memberExpression);
MethodSymbol invokeMethod =
(MethodSymbol)memberExpression.EvaluatedType.GetMember("Invoke");
Debug.Assert(invokeMethod != null);
methodExpression = new MethodExpression(instanceExpression, invokeMethod);
isDelegateInvoke = true;
}
else {
// The member being accessed is a method...
// REVIEW: Uggh... this has become too complex over time with all the transformations
// added over time. Refactoring needed...
MethodSymbol method = (MethodSymbol)memberExpression.Member;
TypeSymbol objectType = _symbolSet.ResolveIntrinsicType(IntrinsicType.Object);
TypeSymbol typeType = _symbolSet.ResolveIntrinsicType(IntrinsicType.Type);
TypeSymbol dictionaryType = _symbolSet.ResolveIntrinsicType(IntrinsicType.Dictionary);
TypeSymbol genericDictionaryType = _symbolSet.ResolveIntrinsicType(IntrinsicType.GenericDictionary);
TypeSymbol numberType = _symbolSet.ResolveIntrinsicType(IntrinsicType.Number);
TypeSymbol stringType = _symbolSet.ResolveIntrinsicType(IntrinsicType.String);
TypeSymbol scriptType = _symbolSet.ResolveIntrinsicType(IntrinsicType.Script);
TypeSymbol argsType = _symbolSet.ResolveIntrinsicType(IntrinsicType.Arguments);
if ((method.Parent == objectType) &&
method.Name.Equals("GetType", StringComparison.Ordinal)) {
// Since we can't extend object's prototype, we need to transform the
// natural c# syntax into a static method.
// Object.GetType instance method becomes Type.GetInstanceType static method
TypeSymbol typeSymbol = typeType;
method = (MethodSymbol)typeSymbol.GetMember("GetInstanceType");
Debug.Assert(method != null);
methodExpression = new MethodExpression(new TypeExpression(typeSymbol, SymbolFilter.Public | SymbolFilter.StaticMembers),
method);
methodExpression.AddParameterValue(memberExpression.ObjectReference);
return methodExpression;
}
else if ((method.Parent == objectType) &&
(method.Name.Equals("ToString", StringComparison.Ordinal) ||
method.Name.Equals("ToLocaleString", StringComparison.Ordinal)) &&
(memberExpression.ObjectReference.EvaluatedType == stringType)) {
// No-op ToString calls on strings (this happens when performing a ToString
// on a named enum value.
return memberExpression.ObjectReference;
}
else if ((method.Parent == objectType) &&
(method.Name.Equals("ToString", StringComparison.Ordinal) ||
method.Name.Equals("ToLocaleString", StringComparison.Ordinal)) &&
(memberExpression.ObjectReference.EvaluatedType is EnumerationSymbol)) {
EnumerationSymbol enumSymbol = (EnumerationSymbol)memberExpression.ObjectReference.EvaluatedType;
if (enumSymbol.UseNamedValues) {
// If the enum value is a named enum, then it is already a string.
return memberExpression.ObjectReference;
}
return new MethodExpression(memberExpression.ObjectReference, method);
}
else if (((method.Parent == dictionaryType) || (method.Parent == genericDictionaryType)) &&
method.Name.Equals("ContainsKey", StringComparison.Ordinal)) {
// Switch the instance ContainsKey method on Dictionary to
// calls to the static KeyExists method.
Debug.Assert(args.Count == 1);
MethodSymbol keyExistsMethod = (MethodSymbol)dictionaryType.GetMember("KeyExists");
Debug.Assert(keyExistsMethod != null);
methodExpression = new MethodExpression(new TypeExpression(dictionaryType, SymbolFilter.Public | SymbolFilter.StaticMembers),
keyExistsMethod);
methodExpression.AddParameterValue(memberExpression.ObjectReference);
methodExpression.AddParameterValue(args[0]);
return methodExpression;
}
else if (((method.Parent == dictionaryType) || (method.Parent == genericDictionaryType)) &&
method.Name.Equals("Remove", StringComparison.Ordinal)) {
// Switch the instance Remove method on Dictionary to
// calls to the static DeleteKey method.
Debug.Assert(args.Count == 1);
return new LateBoundExpression(memberExpression.ObjectReference,
args[0], LateBoundOperation.DeleteField,
objectType);
}
else if (((method.Parent == dictionaryType) || (method.Parent == genericDictionaryType)) &&
method.Name.Equals("Clear")) {
// Switch the instance Clear method on Dictionary to
// calls to the static ClearKeys method.
MethodSymbol clearKeysMethod = (MethodSymbol)dictionaryType.GetMember("ClearKeys");
Debug.Assert(clearKeysMethod != null);
methodExpression = new MethodExpression(new TypeExpression(dictionaryType, SymbolFilter.Public | SymbolFilter.StaticMembers),
clearKeysMethod);
methodExpression.AddParameterValue(memberExpression.ObjectReference);
return methodExpression;
}
else if (((method.Parent == dictionaryType) || (((TypeSymbol)method.Parent).GenericType == genericDictionaryType)) &&
((method.Visibility & MemberVisibility.Static) != 0) &&
method.Name.Equals("GetDictionary", StringComparison.Ordinal)) {
// Dictionary.GetDictionary is a no-op method; we're just interested
// in the object being passed in.
// However we'll re-evaluate the argument to be of dictionary type
// so that subsequent use of this expression sees it as a dictionary.
Debug.Assert(args.Count == 1);
args[0].Reevaluate((TypeSymbol)method.Parent);
return args[0];
}
else if ((method.Parent == stringType) &&
(method.Name.Equals("Escape", StringComparison.Ordinal) ||
method.Name.Equals("Unescape", StringComparison.Ordinal) ||
method.Name.Equals("EncodeUri", StringComparison.Ordinal) ||
method.Name.Equals("DecodeUri", StringComparison.Ordinal) ||
method.Name.Equals("EncodeUriComponent", StringComparison.Ordinal) ||
method.Name.Equals("DecodeUriComponent", StringComparison.Ordinal))) {
// String.<Method> becomes Script.<Method>, as its a global method in script
MethodSymbol scriptMethod = (MethodSymbol)scriptType.GetMember(method.Name);
methodExpression = new MethodExpression(new TypeExpression(scriptType, SymbolFilter.Public | SymbolFilter.StaticMembers),
scriptMethod);
methodExpression.AddParameterValue(memberExpression.ObjectReference);
return methodExpression;
}
else if ((method.Parent == scriptType) &&
method.Name.Equals("Literal", StringComparison.Ordinal)) {
// Convert a call to Script.Literal into a literal expression
Debug.Assert(args.Count >= 1);
string script = null;
if (args[0].Type == ExpressionType.Field) {
Debug.Assert(args[0].EvaluatedType == stringType);
FieldSymbol field = ((FieldExpression)args[0]).Field;
if (field.IsConstant) {
Debug.Assert(field.Value is string);
script = (string)field.Value;
}
}
else if (args[0].Type == ExpressionType.Literal) {
Debug.Assert(((LiteralExpression)args[0]).Value is string);
script = (string)((LiteralExpression)args[0]).Value;
}
if (script == null) {
// TODO: When we start raising errors at the expression level instead of the statement
// level, we should return an ErrorExpression instead of a dummy expression.
Token argToken = argNodes.Expressions[0].Token;
_errorHandler.ReportError("The argument to Script.Literal must be a constant string.",
argToken.Location);
return new InlineScriptExpression("", objectType);
}
InlineScriptExpression scriptExpression = new InlineScriptExpression(script, objectType);
for (int i = 1; i < args.Count; i++) {
scriptExpression.AddParameterValue(args[i]);
}
return scriptExpression;
}
else if ((method.Parent == scriptType) &&
method.Name.Equals("Boolean", StringComparison.Ordinal)) {
Debug.Assert(args.Count == 1);
return new UnaryExpression(Operator.LogicalNot, new UnaryExpression(Operator.LogicalNot, args[0]));
}
else if ((method.Parent == scriptType) &&
method.Name.Equals("Value", StringComparison.Ordinal)) {
Debug.Assert(args.Count >= 2);
Expression expr = args[0];
for (int i = 1; i < args.Count; i++) {
expr = new BinaryExpression(Operator.LogicalOr, expr, args[i]);
}
expr.Reevaluate(args[0].EvaluatedType);
expr.AddParenthesisHint();
return expr;
}
else if (method.Parent == argsType) {
if (method.Name.Equals("GetArgument", StringComparison.Ordinal)) {
// Switch Arguments.GetArgument into Arguments[]
Debug.Assert(args.Count == 1);
IndexerExpression indexExpression =
new IndexerExpression(new LiteralExpression(typeType, method.Parent),
((ClassSymbol)method.Parent).GetIndexer());
indexExpression.AddIndexParameterValue(args[0]);
return indexExpression;
}
else if (method.Name.Equals("ToArray", StringComparison.Ordinal)) {
// Switch Arguments.ToArray into Array.ToArray(arguments)
TypeSymbol arrayType = _symbolSet.ResolveIntrinsicType(IntrinsicType.Array);
MethodSymbol toArrayMethod = (MethodSymbol)arrayType.GetMember("ToArray");
InlineScriptExpression argsExpression =
new InlineScriptExpression("arguments", objectType, /* parenthesize */ false);
MethodExpression toArrayExpression =
new MethodExpression(new TypeExpression(arrayType, SymbolFilter.Public | SymbolFilter.StaticMembers),
toArrayMethod);
toArrayExpression.AddParameterValue(argsExpression);
return toArrayExpression;
}
}
else {
bool lateBound = false;
if (method.Parent == scriptType) {
LateBoundOperation lateBoundOperation = LateBoundOperation.InvokeMethod;
if (method.Name.Equals("InvokeMethod", StringComparison.Ordinal)) {
lateBound = true;
}
else if (method.Name.Equals("DeleteField", StringComparison.Ordinal)) {
lateBound = true;
lateBoundOperation = LateBoundOperation.DeleteField;
}
else if (method.Name.Equals("GetField", StringComparison.Ordinal)) {
lateBound = true;
lateBoundOperation = LateBoundOperation.GetField;
}
else if (method.Name.Equals("SetField", StringComparison.Ordinal)) {
lateBound = true;
lateBoundOperation = LateBoundOperation.SetField;
}
else if (method.Name.Equals("GetScriptType", StringComparison.Ordinal)) {
lateBound = true;
lateBoundOperation = LateBoundOperation.GetScriptType;
}
else if (method.Name.Equals("HasField", StringComparison.Ordinal)) {
lateBound = true;
lateBoundOperation = LateBoundOperation.HasField;
}
else if (method.Name.Equals("HasMethod", StringComparison.Ordinal)) {
lateBound = true;
lateBoundOperation = LateBoundOperation.HasMethod;
}
else if (method.Name.Equals("CreateInstance", StringComparison.Ordinal)) {
Debug.Assert(args.Count >= 1);
if ((args[0].Type == ExpressionType.MethodInvoke) ||
(args[0].Type == ExpressionType.PropertyGet)) {
// When using the result of a method call/property access directly
// with Type.CreateInstance, the following script would be generated:
//
// new method()()
// which is invalid. Instead we need to generate the following:
// var type = method();
// new type()
_errorHandler.ReportError("You must store the type returned from a method or property into a local variable to use with Type.CreateInstance.",
node.Token.Location);
}
NewExpression newExpression = new NewExpression(args[0], objectType);
if (args.Count > 1) {
bool first = true;
foreach (Expression paramExpr in args) {
if (first) {
first = false;
continue;
}
newExpression.AddParameterValue(paramExpr);
}
}
return newExpression;
}
if (lateBound) {
// Switch explicit late-bound calls into implicit late-bound expressions
// in script
Debug.Assert((args != null) &&
(((lateBoundOperation == LateBoundOperation.GetScriptType) && (args.Count == 1)) ||
(args.Count >= 2)));
LateBoundExpression lateBoundExpression = null;
Expression instanceExpression = null;
Expression nameExpression = null;
foreach (Expression paramExpr in args) {
if (instanceExpression == null) {
instanceExpression = paramExpr;
if (lateBoundOperation == LateBoundOperation.GetScriptType) {
// GetScriptType only takes an instance
return new LateBoundExpression(instanceExpression, null,
lateBoundOperation, objectType);
}
continue;
}
if (nameExpression == null) {
nameExpression = paramExpr;
Expression objectExpression = instanceExpression;
if (lateBoundOperation == LateBoundOperation.InvokeMethod) {
if ((instanceExpression.Type == ExpressionType.Literal) &&
(((LiteralExpression)instanceExpression).Value == null)) {
objectExpression = null;
LiteralExpression literalExpression = nameExpression as LiteralExpression;
if (literalExpression == null) {
_errorHandler.ReportError("The name of a global method must be a constant string known at compile time.",
argNodes.Expressions[0].Token.Location);
}
else if (!Utility.IsValidIdentifier((string)literalExpression.Value)) {
_errorHandler.ReportError("The name of a global method must be a valid identifer.",
argNodes.Expressions[0].Token.Location);
}
}
}
lateBoundExpression = new LateBoundExpression(objectExpression, nameExpression,
lateBoundOperation, objectType);
continue;
}
lateBoundExpression.AddParameterValue(paramExpr);
}
Debug.Assert(lateBoundExpression != null);
return lateBoundExpression;
}
}
if (!method.MatchesConditions(_options.Defines)) {
return null;
}
methodExpression = new MethodExpression(memberExpression.ObjectReference,
method);
}
}
if (args != null) {
foreach (Expression paramExpr in args) {
methodExpression.AddParameterValue(paramExpr);
}
}
if (isDelegateInvoke) {
return new DelegateInvokeExpression(methodExpression);
}
return methodExpression;
}
private Expression ProcessDotExpressionNode(BinaryExpressionNode node) {
SymbolFilter filter = SymbolFilter.All;
MemberSymbol memberSymbol = null;
Expression objectExpression = ProcessDotExpressionNode(node, filter, out memberSymbol);
if (objectExpression == null) {
// We didn't successfully create an expression. The first pass attempted to
// process the right child as an instance member of the left child expression.
// We need to process the left child again as a type so we can process the
// right child as a static member this time around.
filter &= ~SymbolFilter.Members;
objectExpression = ProcessDotExpressionNode(node, filter, out memberSymbol);
}
Debug.Assert(objectExpression != null);
TypeSymbol dictionaryType = _symbolSet.ResolveIntrinsicType(IntrinsicType.Dictionary);
TypeSymbol genericDictionaryType = _symbolSet.ResolveIntrinsicType(IntrinsicType.GenericDictionary);
TypeSymbol nullableType = _symbolSet.ResolveIntrinsicType(IntrinsicType.Nullable);
if (memberSymbol.Type == SymbolType.Property) {
if ((memberSymbol.Parent == dictionaryType) ||
(memberSymbol.Parent == genericDictionaryType)) {
MethodSymbol methodSymbol = null;
if (String.CompareOrdinal(memberSymbol.Name, "Count") == 0) {
methodSymbol = (MethodSymbol)dictionaryType.GetMember("GetKeyCount");
Debug.Assert(methodSymbol != null);
}
else if (String.CompareOrdinal(memberSymbol.Name, "Keys") == 0) {
methodSymbol = (MethodSymbol)dictionaryType.GetMember("GetKeys");
Debug.Assert(methodSymbol != null);
}
if (methodSymbol != null) {
MethodExpression methodExpression =
new MethodExpression(new TypeExpression(dictionaryType, SymbolFilter.Public | SymbolFilter.StaticMembers),
methodSymbol);
methodExpression.AddParameterValue(objectExpression);
return methodExpression;
}
}
else if (memberSymbol.Parent == nullableType) {
if (String.CompareOrdinal(memberSymbol.Name, "Value") == 0) {
// Nullable<T>.Value becomes Nullable<T>
TypeSymbol underlyingType = objectExpression.EvaluatedType.GenericArguments.First();
objectExpression.Reevaluate(underlyingType);
return objectExpression;
}
else if (String.CompareOrdinal(memberSymbol.Name, "HasValue") == 0) {
// Nullable<T>.Value becomes Script.IsValue(Nullable<T>)
TypeSymbol scriptType = _symbolSet.ResolveIntrinsicType(IntrinsicType.Script);
MethodSymbol isValueMethod = (MethodSymbol)scriptType.GetMember("IsValue");
MethodExpression methodExpression
= new MethodExpression(new TypeExpression(scriptType, SymbolFilter.Public | SymbolFilter.StaticMembers),
isValueMethod);
methodExpression.AddParameterValue(objectExpression);
return methodExpression;
}
}
}
else if (memberSymbol.Type == SymbolType.Method) {
if (memberSymbol.Parent == nullableType) {
// Nullable<T>.GetValueOrDefault() becomes Nullable<T> || 0|false
TypeSymbol underlyingType = objectExpression.EvaluatedType.GenericArguments.First();
object defaultValue = 0;
if (underlyingType == _symbolSet.ResolveIntrinsicType(IntrinsicType.Boolean)) {
defaultValue = false;
}
else if (underlyingType == _symbolSet.ResolveIntrinsicType(IntrinsicType.String)) {
defaultValue = String.Empty;
}
LiteralExpression literalExpression = new LiteralExpression(underlyingType, defaultValue);
BinaryExpression logicalOrExpression = new BinaryExpression(Operator.LogicalOr, objectExpression, literalExpression);
logicalOrExpression.Reevaluate(underlyingType);
logicalOrExpression.AddParenthesisHint();
return logicalOrExpression;
}
}
string dependency = ((TypeSymbol)memberSymbol.Parent).DependencyName;
if (String.IsNullOrEmpty(dependency) == false) {
_options.AddExecutionDependency(dependency);
}
MemberExpression expression = new MemberExpression(objectExpression, memberSymbol);
if ((memberSymbol.Type == SymbolType.Method) &&
memberSymbol.AssociatedType.IsGeneric && (memberSymbol.AssociatedType.GenericArguments == null)) {
Debug.Assert(node.RightChild.NodeType == ParseNodeType.GenericName);
Debug.Assert(((GenericNameNode)node.RightChild).TypeArguments != null);
List<TypeSymbol> typeArgs = new List<TypeSymbol>();
foreach (ParseNode typeArgNode in ((GenericNameNode)node.RightChild).TypeArguments) {
typeArgs.Add(_symbolSet.ResolveType(typeArgNode, _symbolTable, _symbolContext));
}
TypeSymbol returnType = _symbolSet.CreateGenericTypeSymbol(memberSymbol.AssociatedType, typeArgs);
if (returnType != null) {
MethodSymbol genericMethod = (MethodSymbol)memberSymbol;
MethodSymbol instanceMethod = new MethodSymbol(genericMethod.Name, (TypeSymbol)genericMethod.Parent, returnType);
if (genericMethod.IsTransformed) {
instanceMethod.SetTransformedName(genericMethod.GeneratedName);
}
instanceMethod.SetNameCasing(genericMethod.IsCasePreserved);
expression = new MemberExpression(objectExpression, instanceMethod);
}
}
return expression;
}
public Expression TransformMemberExpression(MemberExpression expression, bool getOrAdd) {
return TransformMemberExpression(expression, getOrAdd, /* isEventAddOrRemove */ false);
}
public Expression TransformMemberExpression(MemberExpression expression, bool getOrAdd, bool isEventAddRemove) {
switch (expression.Member.Type) {
case SymbolType.EnumerationField:
if (((EnumerationSymbol)expression.Member.Parent).UseNamedValues) {
EnumerationFieldSymbol field = (EnumerationFieldSymbol)expression.Member;
string fieldName = ((EnumerationSymbol)expression.Member.Parent).CreateNamedValue(field);
return new LiteralExpression(_symbolSet.ResolveIntrinsicType(IntrinsicType.String),
fieldName);
}
else if (((TypeSymbol)expression.Member.Parent).IsApplicationType ||
((EnumerationSymbol)expression.Member.Parent).UseNumericValues) {
// For enum types defined within the same assembly, simply use the literal value.
// Same goes for any enums marked as numeric values
return new LiteralExpression(_symbolSet.ResolveIntrinsicType(IntrinsicType.Integer),
((EnumerationFieldSymbol)expression.Member).Value);
}
else {
// For enum types imported for another assembly
return new EnumerationFieldExpression(expression.ObjectReference,
(EnumerationFieldSymbol)expression.Member);
}
case SymbolType.Field:
if (((FieldSymbol)expression.Member).IsConstant) {
return new LiteralExpression(expression.Member.AssociatedType, ((FieldSymbol)expression.Member).Value);
}
if (expression.ObjectReference is BaseExpression) {
// Create a this expression, because "this" works just as well as base.
// It is explicit, because the base was explicit.
return new FieldExpression(new ThisExpression(_classContext, /* explicitReference */ true),
(FieldSymbol)expression.Member);
}
if (((expression.Member.Visibility & MemberVisibility.Static) != 0) &&
(expression.Member.Parent != expression.ObjectReference.EvaluatedType)) {
// Create a new type expression because a static member
// of the base type is being used.
return new FieldExpression(new TypeExpression((ClassSymbol)expression.Member.Parent, expression.MemberMask),
(FieldSymbol)expression.Member);
}
if ((_symbolContext.Parent.Type == SymbolType.Record) &&
(expression.ObjectReference.Type == ExpressionType.This)) {
// Change "this" references inside struct ctor code to "$o"
VariableSymbol objectVariable = new VariableSymbol("$o", _memberContext, _classContext);
return new FieldExpression(new LocalExpression(objectVariable),
(FieldSymbol)expression.Member);
}
if (((expression.Member.Visibility & MemberVisibility.Static) != 0) &&
(expression.Member.Parent == _symbolSet.ResolveIntrinsicType(IntrinsicType.String)) &&
(String.CompareOrdinal(expression.Member.Name, "Empty") == 0)) {
// Convert String.Empty to literal expression
return new LiteralExpression(expression.Member.AssociatedType, String.Empty);
}
return new FieldExpression(expression.ObjectReference,
(FieldSymbol)expression.Member);
case SymbolType.Property:
return new PropertyExpression(expression.ObjectReference,
(PropertySymbol)expression.Member, getOrAdd);
case SymbolType.Method:
Debug.Assert(getOrAdd);
return new DelegateExpression(expression.ObjectReference,
(MethodSymbol)expression.Member);
case SymbolType.Event:
if (isEventAddRemove) {
return new EventExpression(expression.ObjectReference,
(EventSymbol)expression.Member, getOrAdd);
}
else {
Debug.Assert(((EventSymbol)expression.Member).DefaultImplementation);
// When the field corresponding to an event whose accessors are auto-generated is
// referenced, we need to hunt for a special generated field name (this is the
// field that is added to the class).
string fieldName = "__" + Utility.CreateCamelCaseName(expression.Member.Name);
FieldSymbol fieldSymbol = (FieldSymbol)expression.ObjectReference.EvaluatedType.GetMember(fieldName);
Debug.Assert(fieldSymbol != null);
if (expression.ObjectReference is BaseExpression) {
// Create a this expression, because "this" works just as well as base.
// It is explicit, because the base was explicit.
return new FieldExpression(new ThisExpression(_classContext, /* explicitReference */ true),
fieldSymbol);
}
return new FieldExpression(expression.ObjectReference, fieldSymbol);
}
default:
Debug.Fail("Unexpected member type to transform: " + expression.Member.Type);
break;
}
return expression;
}
public Expression TransformMemberExpression(MemberExpression expression) {
return TransformMemberExpression(expression, /* getOrAdd */ true, /* isEventAddOrRemove */ false);
}
