public EnumType(DEnum Enum, ISyntaxRegion td)
: base(Enum, new PrimitiveType(DTokens.Int, 0), null, td)
{
}
public void EnumValue(DEnum mye)
{
var ev = new DEnumValue() { Location = la.Location, Description = GetComments(), Parent = mye };
if (laKind == Identifier && (
Lexer.CurrentPeekToken.Kind == Assign ||
Lexer.CurrentPeekToken.Kind == Comma ||
Lexer.CurrentPeekToken.Kind == CloseCurlyBrace))
{
Step();
ev.Name = t.Value;
ev.NameLocation = t.Location;
}
else
{
ev.Type = Type();
if (Expect(Identifier))
{
ev.Name = t.Value;
ev.NameLocation = t.Location;
}
else if (IsEOF)
ev.NameHash = DTokens.IncompleteIdHash;
}
if (laKind == (Assign))
{
Step();
ev.Initializer = AssignExpression(mye);
}
ev.EndLocation = t.EndLocation;
ev.Description += CheckForPostSemicolonComment();
mye.Add(ev);
}
public EnumType(DEnum Enum, AbstractType BaseType, ISyntaxRegion td)
: base(Enum, BaseType, null, td)
{
}
private DEnum EnumDeclaration(INode Parent)
{
var mye = new DEnum() { Location = t.Location, Description = GetComments(), Parent=Parent };
ApplyAttributes(mye);
if (laKind == (Identifier))
{
Step ();
mye.Name = t.Value;
mye.NameLocation = t.Location;
}
else if (IsEOF)
mye.NameHash = DTokens.IncompleteIdHash;
// Enum inhertance type
if (laKind == (Colon))
{
Step();
mye.Type = Type();
}
if (laKind == OpenCurlyBrace)
EnumBody(mye);
else
Expect(Semicolon);
mye.Description += CheckForPostSemicolonComment();
return mye;
}
public void EnumBody(DEnum mye)
{
var OldPreviousComment = PreviousComment;
PreviousComment = new StringBuilder();
mye.BlockStartLocation = la.Location;
// While there are commas, loop through
do
{
Step();
if (laKind == CloseCurlyBrace)
break;
EnumValue(mye);
}
while (laKind == Comma);
Expect(CloseCurlyBrace);
PreviousComment = OldPreviousComment;
mye.EndLocation = t.EndLocation;
}
public void EnumBody(DEnum mye)
{
var OldPreviousComment = PreviousComment;
PreviousComment = new StringBuilder();
mye.BlockStartLocation = la.Location;
// While there are commas, loop through
do
{
Step();
if (laKind == CloseCurlyBrace)
break;
var ev = new DEnumValue() { Location = la.Location, Description = GetComments(), Parent = mye };
LastParsedObject = ev;
if (laKind == Identifier && (
Lexer.CurrentPeekToken.Kind == Assign ||
Lexer.CurrentPeekToken.Kind == Comma ||
Lexer.CurrentPeekToken.Kind == CloseCurlyBrace))
{
Step();
ev.Name = t.Value;
ev.NameLocation = t.Location;
}
else
{
ev.Type = Type();
if (Expect(Identifier))
{
ev.Name = t.Value;
ev.NameLocation = t.Location;
}
else if (IsEOF)
ExpectingNodeName = true;
}
if (laKind == (Assign))
{
Step();
ev.Initializer = AssignExpression();
}
ev.EndLocation = t.EndLocation;
ev.Description += CheckForPostSemicolonComment();
mye.Add(ev);
}
while (laKind == Comma);
Expect(CloseCurlyBrace);
PreviousComment = OldPreviousComment;
mye.EndLocation = t.EndLocation;
}
public virtual void Visit(DEnum n)
{
VisitBlock(n);
}
public virtual void Visit(DEnum n)
{
VisitBlock(n);
}
private INode[] EnumDeclaration(INode Parent)
{
Expect(Enum);
var ret = new List<INode>();
var mye = new DEnum() { Location = t.Location, Description = GetComments(), Parent=Parent };
LastParsedObject = mye;
ApplyAttributes(mye);
if (laKind != Identifier && IsBasicType())
mye.Type = Type();
else if (laKind == Auto)
{
Step();
mye.Attributes.Add(new Modifier(Auto));
}
if (laKind == (Identifier))
{
// Normal enum identifier
if (Lexer.CurrentPeekToken.Kind == (Assign) || // enum e = 1234;
Lexer.CurrentPeekToken.Kind == (OpenCurlyBrace) || // enum e { A,B,C, }
Lexer.CurrentPeekToken.Kind == (Semicolon) || // enum e;
Lexer.CurrentPeekToken.Kind == Colon) { // enum e : uint {..}
Step ();
mye.Name = t.Value;
mye.NameLocation = t.Location;
}
else {
if (mye.Type == null)
mye.Type = Type();
if (Expect(Identifier))
{
mye.Name = t.Value;
mye.NameLocation = t.Location;
}
}
}
else if (IsEOF)
ExpectingNodeName = true;
if (IsDeclaratorSuffix)
{
DeclaratorSuffixes(mye);
}
// Enum inhertance type
if (laKind == (Colon))
{
Step();
mye.Type = Type();
}
// Variables with 'enum' as base type
if (laKind == (Assign) || laKind == (Semicolon))
{
do
{
var enumVar = new DVariable();
LastParsedObject = enumVar;
enumVar.AssignFrom(mye);
enumVar.Attributes.Add(new Modifier(Enum));
if (mye.Type != null)
enumVar.Type = mye.Type;
else
enumVar.Type = new DTokenDeclaration(Enum);
if (laKind == (Comma))
{
Step();
Expect(Identifier);
enumVar.Name = t.Value;
enumVar.NameLocation = t.Location;
}
if (laKind == (Assign))
{
//Step(); -- expected by initializer
enumVar.Initializer = Initializer(); // Seems to be specified wrongly - theoretically there must be an AssignExpression();
}
enumVar.EndLocation = t.Location;
ret.Add(enumVar);
}
while (laKind == Comma);
Expect(Semicolon);
}
else if (laKind == OpenCurlyBrace) // Normal enum block
{
EnumBody(mye);
ret.Add(mye);
}
mye.Description += CheckForPostSemicolonComment();
return ret.ToArray();
}
private INode[] EnumDeclaration()
{
Expect(Enum);
var ret = new List<INode>();
var mye = new DEnum() { StartLocation = t.Location, Description = GetComments() };
LastParsedObject = mye;
ApplyAttributes(mye);
if (IsBasicType() && laKind != Identifier)
mye.Type = Type();
else if (laKind == Auto)
{
Step();
mye.Attributes.Add(new DAttribute(Auto));
}
if (laKind == (Identifier))
{
// Normal enum identifier
if (Lexer.CurrentPeekToken.Kind == (Assign) || Lexer.CurrentPeekToken.Kind == (OpenCurlyBrace) || Lexer.CurrentPeekToken.Kind == (Semicolon) || Lexer.CurrentPeekToken.Kind == Colon)
{
Step();
mye.Name = t.Value;
}
else
{
mye.Type = Type();
Expect(Identifier);
mye.Name = t.Value;
}
}
// Enum inhertance type
if (laKind == (Colon))
{
Step();
mye.Type = Type();
}
// Variables with 'enum' as base type
if (laKind == (Assign) || laKind == (Semicolon))
{
another_enumvalue:
var enumVar = new DVariable();
LastParsedObject = enumVar;
enumVar.AssignFrom(mye);
enumVar.Attributes.Add(new DAttribute(Enum));
if (mye.Type != null)
enumVar.Type = mye.Type;
else
enumVar.Type = new DTokenDeclaration(Enum);
if (laKind == (Comma))
{
Step();
Expect(Identifier);
enumVar.Name = t.Value;
}
if (laKind == (Assign))
{
Step();
enumVar.Initializer = AssignExpression();
}
enumVar.EndLocation = t.Location;
ret.Add(enumVar);
// If there are more than one definitions, loop back
if (laKind == (Comma))
goto another_enumvalue;
Expect(Semicolon);
}
else
{
// Normal enum block
Expect(OpenCurlyBrace);
var OldPreviousComment = PreviousComment;
PreviousComment = "";
mye.BlockStartLocation = t.Location;
bool init = true;
// While there are commas, loop through
while ((init && laKind != (Comma)) || laKind == (Comma))
{
if (!init) Step();
init = false;
if (laKind == (CloseCurlyBrace)) break;
var ev = new DEnumValue() { StartLocation = t.Location, Description = GetComments() };
LastParsedObject = ev;
if (laKind == (Identifier) && (Lexer.CurrentPeekToken.Kind == (Assign) || Lexer.CurrentPeekToken.Kind == (Comma) || Lexer.CurrentPeekToken.Kind == (CloseCurlyBrace)))
{
Step();
ev.Name = t.Value;
}
else
{
ev.Type = Type();
Expect(Identifier);
ev.Name = t.Value;
}
if (laKind == (Assign))
{
Step();
ev.Initializer = AssignExpression();
}
ev.EndLocation = t.EndLocation;
ev.Description += CheckForPostSemicolonComment();
mye.Add(ev);
}
Expect(CloseCurlyBrace);
PreviousComment = OldPreviousComment;
mye.EndLocation = t.EndLocation;
// Important: Add the enum block, whereas it CAN be unnamed, to the return array
ret.Add(mye);
}
mye.Description += CheckForPostSemicolonComment();
return ret.ToArray();
}
private INode[] EnumDeclaration(INode Parent)
{
Expect(Enum);
var ret = new List<INode>();
var mye = new DEnum() { Location = t.Location, Description = GetComments(), Parent=Parent };
LastParsedObject = mye;
ApplyAttributes(mye);
if (IsBasicType() && laKind != Identifier)
mye.Type = Type();
else if (laKind == Auto)
{
Step();
mye.Attributes.Add(new DAttribute(Auto));
}
if (laKind == (Identifier))
{
// Normal enum identifier
if (Lexer.CurrentPeekToken.Kind == (Assign) || // enum e = 1234;
Lexer.CurrentPeekToken.Kind == (OpenCurlyBrace) || // enum e { A,B,C, }
Lexer.CurrentPeekToken.Kind == (Semicolon) || // enum e;
Lexer.CurrentPeekToken.Kind == Colon) // enum e : uint {..}
{
Step();
mye.Name = t.Value;
mye.NameLocation = t.Location;
}
else
{
if(mye.Type == null)
mye.Type = Type();
if (Expect(Identifier))
{
mye.Name = t.Value;
mye.NameLocation = t.Location;
}
}
}
if (IsDeclaratorSuffix)
{
var _unused = new List<INode>();
var bt2=DeclaratorSuffixes(out mye.TemplateParameters, out _unused, mye.Attributes);
if (bt2 != null)
{
bt2.InnerDeclaration = mye.Type;
mye.Type = bt2;
}
}
// Enum inhertance type
if (laKind == (Colon))
{
Step();
mye.Type = Type();
}
// Variables with 'enum' as base type
if (laKind == (Assign) || laKind == (Semicolon))
{
do
{
var enumVar = new DVariable();
LastParsedObject = enumVar;
enumVar.AssignFrom(mye);
enumVar.Attributes.Add(new DAttribute(Enum));
if (mye.Type != null)
enumVar.Type = mye.Type;
else
enumVar.Type = new DTokenDeclaration(Enum);
if (laKind == (Comma))
{
Step();
Expect(Identifier);
enumVar.Name = t.Value;
enumVar.NameLocation = t.Location;
}
if (laKind == (Assign))
{
//Step(); -- expected by initializer
enumVar.Initializer = Initializer(); // Seems to be specified wrongly - theoretically there must be an AssignExpression();
}
enumVar.EndLocation = t.Location;
ret.Add(enumVar);
}
while (laKind == Comma);
Expect(Semicolon);
}
else
{
// Normal enum block
Expect(OpenCurlyBrace);
var OldPreviousComment = PreviousComment;
PreviousComment = "";
mye.BlockStartLocation = t.Location;
bool init = true;
// While there are commas, loop through
while ((init && laKind != (Comma)) || laKind == (Comma))
{
if (!init) Step();
init = false;
if (laKind == CloseCurlyBrace) break;
var ev = new DEnumValue() { Location = la.Location, Description = GetComments(), Parent = mye };
LastParsedObject = ev;
if (laKind == Identifier && (
Lexer.CurrentPeekToken.Kind == Assign ||
Lexer.CurrentPeekToken.Kind == Comma ||
Lexer.CurrentPeekToken.Kind == CloseCurlyBrace))
{
Step();
ev.Name = t.Value;
ev.NameLocation = t.Location;
}
else
{
ev.Type = Type();
Expect(Identifier);
ev.Name = t.Value;
ev.NameLocation = t.Location;
}
if (laKind == (Assign))
{
Step();
ev.Initializer = AssignExpression();
}
ev.EndLocation = t.EndLocation;
ev.Description += CheckForPostSemicolonComment();
mye.Add(ev);
}
Expect(CloseCurlyBrace);
PreviousComment = OldPreviousComment;
mye.EndLocation = t.EndLocation;
// Important: Add the enum block, whereas it CAN be unnamed, to the return array
ret.Add(mye);
}
mye.Description += CheckForPostSemicolonComment();
return ret.ToArray();
}
/*public override void VisitAttributeMetaDeclaration(AttributeMetaDeclaration md)
{
base.Visit(md);
}
public override void VisitMetaDeclarationBlock(MetaDeclarationBlock metaDeclarationBlock)
{
base.Visit(metaDeclarationBlock);
}
public override void VisitAttributeMetaDeclarationBlock(AttributeMetaDeclarationBlock attributeMetaDeclarationBlock)
{
base.Visit(attributeMetaDeclarationBlock);
}
public override void VisitAttributeMetaDeclarationSection(AttributeMetaDeclarationSection attributeMetaDeclarationSection)
{
base.Visit(attributeMetaDeclarationSection);
}
public override void Visit(ElseMetaDeclaration elseMetaDeclaration)
{
base.Visit(elseMetaDeclaration);
}
public override void Visit(ElseMetaDeclarationBlock elseMetaDeclarationBlock)
{
base.Visit(elseMetaDeclarationBlock);
}*/
#endregion
public override void Visit(DEnum n)
{
base.Visit(n);
}
public override void Visit(DEnum n)
{
PushBlock(n);
}
public override void Visit(DEnum n)
{
l.Add(new FoldingRegion(GetBlockBodyRegion(n), FoldType.Type));
base.Visit(n);
}
/// <returns>Either CurrentScope, a BlockStatement object that is associated with the parent method or a complete new DModule object</returns>
public static object FindCurrentCaretContext(string code,
IBlockNode CurrentScope,
int caretOffset, CodeLocation caretLocation,
out ParserTrackerVariables TrackerVariables)
{
bool ParseDecl = false;
int blockStart = 0;
var blockStartLocation = CurrentScope.BlockStartLocation;
if (CurrentScope is DMethod)
{
var block = (CurrentScope as DMethod).GetSubBlockAt(caretLocation);
if (block != null)
blockStart = DocumentHelper.LocationToOffset(code, blockStartLocation = block.Location);
else
return FindCurrentCaretContext(code, CurrentScope.Parent as IBlockNode, caretOffset, caretLocation, out TrackerVariables);
}
else if (CurrentScope != null)
{
if (CurrentScope.BlockStartLocation.IsEmpty || caretLocation < CurrentScope.BlockStartLocation && caretLocation > CurrentScope.Location)
{
ParseDecl = true;
blockStart = DocumentHelper.LocationToOffset(code, blockStartLocation = CurrentScope.Location);
}
else
blockStart = DocumentHelper.LocationToOffset(code, CurrentScope.BlockStartLocation);
}
if (blockStart >= 0 && caretOffset - blockStart > 0)
{
var codeToParse = code.Substring(blockStart, caretOffset - blockStart);
var sr = new StringReader(codeToParse);
var psr = DParser.Create(sr);
/* Deadly important! For correct resolution behaviour,
* it is required to set the parser virtually to the blockStart position,
* so that everything using the returned object is always related to
* the original code file, not our code extraction!
*/
psr.Lexer.SetInitialLocation(blockStartLocation);
object ret = null;
if (CurrentScope == null || CurrentScope is IAbstractSyntaxTree)
ret = psr.Parse();
else if (CurrentScope is DMethod)
{
psr.Step();
ret = psr.BlockStatement(CurrentScope);
}
else if (CurrentScope is DModule)
ret = psr.Root();
else
{
psr.Step();
if (ParseDecl)
{
var ret2 = psr.Declaration(CurrentScope);
if (ret2 != null && ret2.Length > 0)
ret = ret2[0];
}
else
{
DBlockNode bn = null;
if (CurrentScope is DClassLike)
{
var t = new DClassLike((CurrentScope as DClassLike).ClassType);
t.AssignFrom(CurrentScope);
bn = t;
}
else if (CurrentScope is DEnum)
{
var t = new DEnum();
t.AssignFrom(CurrentScope);
bn = t;
}
bn.Clear();
psr.ClassBody(bn);
ret = bn;
}
}
TrackerVariables = psr.TrackerVariables;
sr.Close();
return ret;
}
TrackerVariables = null;
return null;
}
public static ISyntaxRegion FindCurrentCaretContext(IEditorData editor,
out ParserTrackerVariables trackerVariables,
ref IBlockNode currentScope,
out IStatement currentStatement)
{
if(currentScope == null)
currentScope = DResolver.SearchBlockAt (editor.SyntaxTree, editor.CaretLocation, out currentStatement);
if (currentScope == null) {
trackerVariables = null;
currentStatement = null;
return null;
}
bool ParseDecl = false;
int blockStart = 0;
var blockStartLocation = currentScope != null ? currentScope.BlockStartLocation : editor.CaretLocation;
if (currentScope is DMethod)
{
var block = (currentScope as DMethod).GetSubBlockAt(editor.CaretLocation);
if (block != null)
blockStart = DocumentHelper.GetOffsetByRelativeLocation (editor.ModuleCode, editor.CaretLocation, editor.CaretOffset, blockStartLocation = block.Location);
else {
currentScope = currentScope.Parent as IBlockNode;
return FindCurrentCaretContext (editor, out trackerVariables, ref currentScope, out currentStatement);
}
}
else if (currentScope != null)
{
if (currentScope.BlockStartLocation.IsEmpty || (editor.CaretLocation < currentScope.BlockStartLocation && editor.CaretLocation > currentScope.Location))
{
ParseDecl = true;
blockStart = DocumentHelper.GetOffsetByRelativeLocation(editor.ModuleCode, editor.CaretLocation, editor.CaretOffset, blockStartLocation = currentScope.Location);
}
else
blockStart = DocumentHelper.GetOffsetByRelativeLocation(editor.ModuleCode, editor.CaretLocation, editor.CaretOffset, currentScope.BlockStartLocation);
}
if (blockStart >= 0 && editor.CaretOffset - blockStart > 0)
using (var sr = new Misc.StringView(editor.ModuleCode, blockStart, editor.CaretOffset - blockStart))
{
var psr = DParser.Create(sr);
/* Deadly important! For correct resolution behaviour,
* it is required to set the parser virtually to the blockStart position,
* so that everything using the returned object is always related to
* the original code file, not our code extraction!
*/
psr.Lexer.SetInitialLocation(blockStartLocation);
ISyntaxRegion ret = null;
if (currentScope == null)
ret = psr.Parse();
else if (currentScope is DMethod)
{
psr.Step();
var dm = currentScope as DMethod;
dm.Clear();
if ((dm.SpecialType & DMethod.MethodType.Lambda) != 0 &&
psr.Lexer.LookAhead.Kind != DTokens.OpenCurlyBrace) {
psr.LambdaSingleStatementBody (dm);
ret = dm.Body;
} else {
var methodRegion = DTokens.Body;
if (dm.In != null && blockStartLocation == dm.In.Location)
methodRegion = DTokens.In;
if (dm.Out != null && blockStartLocation == dm.Out.Location)
methodRegion = DTokens.Out;
var newBlock = psr.BlockStatement (currentScope);
ret = newBlock;
switch (methodRegion) {
case DTokens.Body:
newBlock.EndLocation = dm.Body.EndLocation;
dm.Body = newBlock;
break;
case DTokens.In:
newBlock.EndLocation = dm.In.EndLocation;
dm.In = newBlock;
break;
case DTokens.Out:
newBlock.EndLocation = dm.Out.EndLocation;
dm.Out = newBlock;
break;
}
}
}
else if (currentScope is DModule)
ret = psr.Root();
else
{
psr.Step();
if (ParseDecl)
{
var ret2 = psr.Declaration(currentScope);
if (ret2 != null && ret2.Length > 0)
ret = ret2[0];
}
else if (currentScope is DClassLike)
{
var t = new DClassLike((currentScope as DClassLike).ClassType);
t.AssignFrom(currentScope);
t.Clear();
psr.ClassBody(t);
ret = t;
}
else if (currentScope is DEnum)
{
var t = new DEnum();
t.AssignFrom(currentScope);
t.Clear();
psr.EnumBody(t);
ret = t;
}
}
currentScope = DResolver.SearchBlockAt (currentScope,
psr.Lexer.CurrentToken != null ? psr.Lexer.CurrentToken.EndLocation : editor.CaretLocation,
out currentStatement);
trackerVariables = psr.TrackerVariables;
return ret;
}
trackerVariables = null;
currentStatement = null;
return null;
}