public static int[][] computeDietRange(TypeDeclaration[] types) { if(types == null || types.length == 0) { return new int[3][0]; } else { RangeResult result = new RangeResult(); computeDietRange0(types, result); return result.getRanges(); } }
public PrimaryRepairInfo copy(){ PrimaryRepairInfo c = new PrimaryRepairInfo(); c.distance = this.distance; c.misspellIndex = this.misspellIndex; c.code = this.code; c.bufferPosition = this .bufferPosition; c.symbol = this.symbol; return c; } }
@Override public boolean atConflictScenario(int token) { /* There is too much voodoo that goes on here in DiagnoseParser (multiple machines, lexer stream reset etc.) So we take a simple minded view that we will always ask for disambiguation, except there is one scenario that needs special handling, we let the lexer stream deal with that: In X<String>.Y<Integer>:: the second '<' should not be tagged for disambiguation. If a synthetic token gets injected there, there will be syntax error. See that this is not a problem for the regular/normal parser. */ return (token == TokenNameLPAREN || token == TokenNameAT || (token == TokenNameLESS && !this.lexStream.awaitingColonColon())); }
private void reportError(int msgCode, int nameIndex, int leftToken, int rightToken, int scopeNameIndex) { int lToken = (leftToken > rightToken ? rightToken : leftToken); if (lToken < rightToken) { reportSecondaryError(msgCode, nameIndex, lToken, rightToken, scopeNameIndex); } else { reportPrimaryError(msgCode, nameIndex, rightToken, scopeNameIndex); } }
public DiagnoseParser(Parser parser, int firstToken, int start, int end, int[] intervalStartToSkip, int[] intervalEndToSkip, int[] intervalFlagsToSkip, CompilerOptions options) { this.parser = parser; this.options = options; this.lexStream = new LexStream(BUFF_SIZE, parser.scanner, intervalStartToSkip, intervalEndToSkip, intervalFlagsToSkip, firstToken, start, end); this.recoveryScanner = parser.recoveryScanner; }
public static int[][] computeDietRange(TypeDeclaration[] types) { if(types == null || types.length == 0) { return new int[3][0]; } else { RangeResult result = new RangeResult(); computeDietRange0(types, result); return result.getRanges(); } }
public DiagnoseParser(Parser parser, int firstToken, int start, int end, int[] intervalStartToSkip, int[] intervalEndToSkip, int[] intervalFlagsToSkip, CompilerOptions options) { this.parser = parser; this.options = options; this.lexStream = new LexStream(BUFF_SIZE, parser.scanner, intervalStartToSkip, intervalEndToSkip, intervalFlagsToSkip, firstToken, start, end); this.recoveryScanner = parser.recoveryScanner; }
public PrimaryRepairInfo copy(){ PrimaryRepairInfo c = new PrimaryRepairInfo(); c.distance = this.distance; c.misspellIndex = this.misspellIndex; c.code = this.code; c.bufferPosition = this .bufferPosition; c.symbol = this.symbol; return c; } }
public boolean atConflictScenario(int token) { /* There is too much voodoo that goes on here in DiagnoseParser (multiple machines, lexer stream reset etc.) So we take a simple minded view that we will always ask for disambiguation, except there is one scenario that needs special handling, we let the lexer stream deal with that: In X<String>.Y<Integer>:: the second '<' should not be tagged for disambiguation. If a synthetic token gets injected there, there will be syntax error. See that this is not a problem for the regular/normal parser. */ return (token == TokenNameLPAREN || token == TokenNameAT || (token == TokenNameLESS && !this.lexStream.awaitingColonColon())); } }
public static int[][] computeDietRange(TypeDeclaration[] types) { if(types == null || types.length == 0) { return new int[3][0]; } else { RangeResult result = new RangeResult(); computeDietRange0(types, result); return result.getRanges(); } }
public DiagnoseParser(Parser parser, int firstToken, int start, int end, int[] intervalStartToSkip, int[] intervalEndToSkip, int[] intervalFlagsToSkip, CompilerOptions options) { this.parser = parser; this.options = options; this.lexStream = new LexStream(BUFF_SIZE, parser.scanner, intervalStartToSkip, intervalEndToSkip, intervalFlagsToSkip, firstToken, start, end); this.recoveryScanner = parser.recoveryScanner; }
public boolean atConflictScenario(int token) { /* There is too much voodoo that goes on here in DiagnoseParser (multiple machines, lexer stream reset etc.) So we take a simple minded view that we will always ask for disambiguation, except there is one scenario that needs special handling, we let the lexer stream deal with that: In X<String>.Y<Integer>:: the second '<' should not be tagged for disambiguation. If a synthetic token gets injected there, there will be syntax error. See that this is not a problem for the regular/normal parser. */ return (token == TokenNameLPAREN || token == TokenNameAT || (token == TokenNameLESS && !this.lexStream.awaitingColonColon())); }
public static int[][] computeDietRange(TypeDeclaration[] types) { if(types == null || types.length == 0) { return new int[3][0]; } else { RangeResult result = new RangeResult(); computeDietRange0(types, result); return result.getRanges(); } }
public static int[][] computeDietRange(TypeDeclaration[] types) { if(types == null || types.length == 0) { return new int[3][0]; } else { RangeResult result = new RangeResult(); computeDietRange0(types, result); return result.getRanges(); } }
public static int[][] computeDietRange(TypeDeclaration[] types) { if(types == null || types.length == 0) { return new int[3][0]; } else { RangeResult result = new RangeResult(); computeDietRange0(types, result); return result.getRanges(); } }
public static int[][] computeDietRange(TypeDeclaration[] types) { if(types == null || types.length == 0) { return new int[3][0]; } else { RangeResult result = new RangeResult(); computeDietRange0(types, result); return result.getRanges(); } }
public static int[][] computeDietRange(TypeDeclaration[] types) { if(types == null || types.length == 0) { return new int[3][0]; } else { RangeResult result = new RangeResult(); computeDietRange0(types, result); return result.getRanges(); } }
public static int[][] computeDietRange(TypeDeclaration[] types) { if(types == null || types.length == 0) { return new int[3][0]; } else { RangeResult result = new RangeResult(); computeDietRange0(types, result); return result.getRanges(); } }
public static int[][] computeDietRange(TypeDeclaration[] types) { if(types == null || types.length == 0) { return new int[3][0]; } else { RangeResult result = new RangeResult(); computeDietRange0(types, result); return result.getRanges(); } }
public static int[][] computeDietRange(TypeDeclaration[] types) { if(types == null || types.length == 0) { return new int[3][0]; } else { RangeResult result = new RangeResult(); computeDietRange0(types, result); return result.getRanges(); } }