Example 1 with NewObjectNode
use of org.mvel2.ast.NewObjectNode in project drools by kiegroup.
the class ConditionAnalyzer method analyzeNode.
private Expression analyzeNode(ASTNode node) {
node = analyzeRegEx(analyzeSubstatement(node));
if (node instanceof LiteralNode) {
LiteralNode literalNode = (LiteralNode) node;
return new FixedExpression(literalNode.getEgressType(), literalNode.getLiteralValue());
}
if (node instanceof BinaryOperation) {
BinaryOperation op = (BinaryOperation) node;
return new AritmeticExpression(analyzeNode(op.getLeft()), AritmeticOperator.fromMvelOpCode(op.getOperation()), analyzeNode(op.getRight()));
}
if (node instanceof TypeCast) {
ExecutableStatement statement = ((TypeCast) node).getStatement();
if (statement instanceof ExecutableAccessor) {
ExecutableAccessor accessor = (ExecutableAccessor) statement;
return new CastExpression(node.getEgressType(), analyzeNode(accessor.getNode()));
} else {
ExecutableLiteral literal = (ExecutableLiteral) statement;
return new CastExpression(node.getEgressType(), new FixedExpression(literal.getLiteral()));
}
}
if (node instanceof Union) {
ASTNode main = ((Union) node).getMain();
Accessor accessor = node.getAccessor();
EvaluatedExpression expression = new EvaluatedExpression();
expression.firstExpression = analyzeNode(main);
if (accessor instanceof DynamicGetAccessor) {
AccessorNode accessorNode = (AccessorNode) ((DynamicGetAccessor) accessor).getSafeAccessor();
expression.addInvocation(analyzeAccessorInvocation(accessorNode, node, null, null));
} else if (accessor instanceof AccessorNode) {
AccessorNode accessorNode = (AccessorNode) accessor;
while (accessorNode != null) {
expression.addInvocation(analyzeAccessorInvocation(accessorNode, node, null, null));
accessorNode = accessorNode.getNextNode();
}
} else {
throw new RuntimeException("Unexpected accessor: " + accessor);
}
return expression;
}
if (node instanceof Sign) {
ExecutableStatement statement = getFieldValue(Sign.class, "stmt", (Sign) node);
if (statement instanceof ExecutableAccessor) {
ExecutableAccessor accessor = (ExecutableAccessor) statement;
return new AritmeticExpression(new FixedExpression(0), AritmeticOperator.SUB, analyzeNode(accessor.getNode()));
} else {
ExecutableLiteral literal = (ExecutableLiteral) statement;
return new AritmeticExpression(new FixedExpression(0), AritmeticOperator.SUB, new FixedExpression(literal.getLiteral()));
}
}
Accessor accessor = node.getAccessor();
if (accessor instanceof IndexedVariableAccessor) {
String variableName = node.getName();
int dot = variableName.indexOf('.');
if (dot > 0) {
variableName = variableName.substring(0, dot);
}
Class<?> variableType = getVariableType(variableName);
return new VariableExpression(variableName, analyzeExpressionNode(((AccessorNode) accessor).getNextNode(), node, variableType), variableType != null ? variableType : node.getEgressType());
}
if (accessor == null && node instanceof NewObjectNode) {
accessor = ((NewObjectNode) node).getNewObjectOptimizer();
}
if (accessor instanceof VariableAccessor) {
VariableAccessor variableAccessor = (VariableAccessor) accessor;
AccessorNode accessorNode = variableAccessor.getNextNode();
if (accessorNode == null || !isStaticAccessor(accessorNode)) {
String variableName = (String) (variableAccessor.getProperty());
Class<?> variableType = getVariableType(variableName);
if (variableType != null) {
return new VariableExpression(variableName, analyzeExpressionNode(accessorNode, node, variableType), variableType);
} else {
if (node.getLiteralValue() instanceof ParserContext) {
ParserContext pCtx = (ParserContext) node.getLiteralValue();
// it's not a variable but a method invocation on this
Class<?> thisClass = pCtx.getInputs().get("this");
try {
return new EvaluatedExpression(new MethodInvocation(thisClass.getMethod(variableName)));
} catch (NoSuchMethodException e) {
if (node.getEgressType() == Class.class) {
// there's no method on this with the given name, check if it is a class literal
Class<?> classLiteral = pCtx.getParserConfiguration().getImport(variableName);
if (classLiteral != null) {
return new FixedExpression(Class.class, classLiteral);
}
}
throw new RuntimeException(e);
}
}
}
}
}
if (accessor == null) {
throw new RuntimeException("Null accessor on node: " + node);
}
return analyzeNodeAccessor(accessor, node);
}
Also used :
BinaryOperation(org.mvel2.ast.BinaryOperation)
ExecutableAccessor(org.mvel2.compiler.ExecutableAccessor)
FieldAccessor(org.mvel2.optimizers.impl.refl.nodes.FieldAccessor)
StaticVarAccessor(org.mvel2.optimizers.impl.refl.nodes.StaticVarAccessor)
ListAccessor(org.mvel2.optimizers.impl.refl.nodes.ListAccessor)
ExecutableAccessor(org.mvel2.compiler.ExecutableAccessor)
GetterAccessor(org.mvel2.optimizers.impl.refl.nodes.GetterAccessor)
DynamicGetAccessor(org.mvel2.optimizers.dynamic.DynamicGetAccessor)
ExprValueAccessor(org.mvel2.optimizers.impl.refl.collection.ExprValueAccessor)
MapAccessor(org.mvel2.optimizers.impl.refl.nodes.MapAccessor)
ThisValueAccessor(org.mvel2.optimizers.impl.refl.nodes.ThisValueAccessor)
Accessor(org.mvel2.compiler.Accessor)
IndexedVariableAccessor(org.mvel2.optimizers.impl.refl.nodes.IndexedVariableAccessor)
MethodAccessor(org.mvel2.optimizers.impl.refl.nodes.MethodAccessor)
VariableAccessor(org.mvel2.optimizers.impl.refl.nodes.VariableAccessor)
ConstructorAccessor(org.mvel2.optimizers.impl.refl.nodes.ConstructorAccessor)
StaticReferenceAccessor(org.mvel2.optimizers.impl.refl.nodes.StaticReferenceAccessor)
ArrayAccessor(org.mvel2.optimizers.impl.refl.nodes.ArrayAccessor)
Union(org.mvel2.ast.Union)
AccessorNode(org.mvel2.compiler.AccessorNode)
DynamicGetAccessor(org.mvel2.optimizers.dynamic.DynamicGetAccessor)
ExecutableLiteral(org.mvel2.compiler.ExecutableLiteral)
ASTNode(org.mvel2.ast.ASTNode)
ExecutableStatement(org.mvel2.compiler.ExecutableStatement)
IndexedVariableAccessor(org.mvel2.optimizers.impl.refl.nodes.IndexedVariableAccessor)
VariableAccessor(org.mvel2.optimizers.impl.refl.nodes.VariableAccessor)
LiteralNode(org.mvel2.ast.LiteralNode)
IndexedVariableAccessor(org.mvel2.optimizers.impl.refl.nodes.IndexedVariableAccessor)
NewObjectNode(org.mvel2.ast.NewObjectNode)
Sign(org.mvel2.ast.Sign)
TypeCast(org.mvel2.ast.TypeCast)
ParserContext(org.mvel2.ParserContext)
Example 2 with NewObjectNode
use of org.mvel2.ast.NewObjectNode in project mvel by mikebrock.
the class AbstractParser method nextToken.
/**
* Retrieve the next token in the expression.
*
* @return -
*/
protected ASTNode nextToken() {
try {
/**
* If the cursor is at the end of the expression, we have nothing more to do:
* return null.
*/
if (!splitAccumulator.isEmpty()) {
lastNode = (ASTNode) splitAccumulator.pop();
if (cursor >= end && lastNode instanceof EndOfStatement) {
return nextToken();
} else {
return lastNode;
}
} else if (cursor >= end) {
return null;
}
int brace, idx;
int tmpStart;
String name;
/**
* Because of parser recursion for sub-expression parsing, we sometimes need to remain
* certain field states. We do not reset for assignments, boolean mode, list creation or
* a capture only mode.
*/
boolean capture = false, union = false;
if ((fields & ASTNode.COMPILE_IMMEDIATE) != 0 && pCtx == null) {
debugSymbols = (pCtx = getParserContext()).isDebugSymbols();
}
if (debugSymbols) {
if (!lastWasLineLabel) {
if (pCtx.getSourceFile() == null) {
throw new CompileException("unable to produce debugging symbols: source name must be provided.", expr, st);
}
if (!pCtx.isLineMapped(pCtx.getSourceFile())) {
pCtx.initLineMapping(pCtx.getSourceFile(), expr);
}
skipWhitespace();
if (cursor >= end) {
return null;
}
int line = pCtx.getLineFor(pCtx.getSourceFile(), cursor);
if (!pCtx.isVisitedLine(pCtx.getSourceFile(), pCtx.setLineCount(line)) && !pCtx.isBlockSymbols()) {
lastWasLineLabel = true;
pCtx.visitLine(pCtx.getSourceFile(), line);
return lastNode = pCtx.setLastLineLabel(new LineLabel(pCtx.getSourceFile(), line));
}
} else {
lastWasComment = lastWasLineLabel = false;
}
}
/**
* Skip any whitespace currently under the starting point.
*/
skipWhitespace();
/**
* From here to the end of the method is the core MVEL parsing code. Fiddling around here is asking for
* trouble unless you really know what you're doing.
*/
st = cursor;
Mainloop: while (cursor != end) {
if (isIdentifierPart(expr[cursor])) {
capture = true;
cursor++;
while (cursor != end && isIdentifierPart(expr[cursor])) cursor++;
}
if (capture) {
String t;
if (OPERATORS.containsKey(t = new String(expr, st, cursor - st))) {
switch(OPERATORS.get(t)) {
case NEW:
if (!isIdentifierPart(expr[st = cursor = trimRight(cursor)])) {
throw new CompileException("unexpected character (expected identifier): " + expr[cursor], expr, st);
}
/**
* Capture the beginning part of the token.
*/
do {
captureToNextTokenJunction();
skipWhitespace();
} while (cursor < end && expr[cursor] == '[');
/**
* If it's not a dimentioned array, continue capturing if necessary.
*/
if (cursor < end && !lastNonWhite(']'))
captureToEOT();
TypeDescriptor descr = new TypeDescriptor(expr, st, trimLeft(cursor) - st, fields);
if (pCtx == null)
pCtx = getParserContext();
if (pCtx.hasProtoImport(descr.getClassName())) {
return lastNode = new NewPrototypeNode(descr);
}
lastNode = new NewObjectNode(descr, fields, pCtx);
skipWhitespace();
if (cursor != end && expr[cursor] == '{') {
if (!((NewObjectNode) lastNode).getTypeDescr().isUndimensionedArray()) {
throw new CompileException("conflicting syntax: dimensioned array with initializer block", expr, st);
}
st = cursor;
Class egressType = lastNode.getEgressType();
if (egressType == null) {
try {
egressType = getClassReference(pCtx, descr);
} catch (ClassNotFoundException e) {
throw new CompileException("could not instantiate class", expr, st, e);
}
}
cursor = balancedCaptureWithLineAccounting(expr, st, end, expr[cursor], pCtx) + 1;
if (tokenContinues()) {
lastNode = new InlineCollectionNode(expr, st, cursor - st, fields, egressType, pCtx);
st = cursor;
captureToEOT();
return lastNode = new Union(expr, st + 1, cursor, fields, lastNode);
} else {
return lastNode = new InlineCollectionNode(expr, st, cursor - st, fields, egressType, pCtx);
}
} else if (((NewObjectNode) lastNode).getTypeDescr().isUndimensionedArray()) {
throw new CompileException("array initializer expected", expr, st);
}
st = cursor;
return lastNode;
case ASSERT:
st = cursor = trimRight(cursor);
captureToEOS();
return lastNode = new AssertNode(expr, st, cursor-- - st, fields, pCtx);
case RETURN:
st = cursor = trimRight(cursor);
captureToEOS();
return lastNode = new ReturnNode(expr, st, cursor - st, fields, pCtx);
case IF:
return captureCodeBlock(ASTNode.BLOCK_IF);
case ELSE:
throw new CompileException("else without if", expr, st);
case FOREACH:
return captureCodeBlock(ASTNode.BLOCK_FOREACH);
case WHILE:
return captureCodeBlock(ASTNode.BLOCK_WHILE);
case UNTIL:
return captureCodeBlock(ASTNode.BLOCK_UNTIL);
case FOR:
return captureCodeBlock(ASTNode.BLOCK_FOR);
case WITH:
return captureCodeBlock(ASTNode.BLOCK_WITH);
case DO:
return captureCodeBlock(ASTNode.BLOCK_DO);
case PROTO:
return captureCodeBlock(PROTO);
case ISDEF:
st = cursor = trimRight(cursor);
captureToNextTokenJunction();
return lastNode = new IsDef(expr, st, cursor - st);
case IMPORT:
st = cursor = trimRight(cursor);
captureToEOS();
ImportNode importNode = new ImportNode(expr, st, cursor - st);
if (pCtx == null)
pCtx = getParserContext();
if (importNode.isPackageImport()) {
pCtx.addPackageImport(importNode.getPackageImport());
} else {
pCtx.addImport(importNode.getImportClass().getSimpleName(), importNode.getImportClass());
}
return lastNode = importNode;
case IMPORT_STATIC:
st = cursor = trimRight(cursor);
captureToEOS();
return lastNode = new StaticImportNode(expr, st, trimLeft(cursor) - st);
case FUNCTION:
lastNode = captureCodeBlock(FUNCTION);
st = cursor + 1;
return lastNode;
case UNTYPED_VAR:
int end;
st = cursor + 1;
while (true) {
captureToEOT();
end = cursor;
skipWhitespace();
if (cursor != end && expr[cursor] == '=') {
if (end == (cursor = st))
throw new CompileException("illegal use of reserved word: var", expr, st);
continue Mainloop;
} else {
name = new String(expr, st, end - st);
if (pCtx != null && (idx = pCtx.variableIndexOf(name)) != -1) {
splitAccumulator.add(lastNode = new IndexedDeclTypedVarNode(idx, st, end - st, Object.class));
} else {
splitAccumulator.add(lastNode = new DeclTypedVarNode(name, expr, st, end - st, Object.class, fields, pCtx));
}
}
if (cursor == this.end || expr[cursor] != ',')
break;
else {
cursor++;
skipWhitespace();
st = cursor;
}
}
return (ASTNode) splitAccumulator.pop();
}
}
skipWhitespace();
/**
* If we *were* capturing a token, and we just hit a non-identifier
* character, we stop and figure out what to do.
*/
if (cursor != end && expr[cursor] == '(') {
cursor = balancedCaptureWithLineAccounting(expr, cursor, end, '(', pCtx) + 1;
}
/**
* If we encounter any of the following cases, we are still dealing with
* a contiguous token.
*/
CaptureLoop: while (cursor != end) {
switch(expr[cursor]) {
case '.':
union = true;
cursor++;
skipWhitespace();
continue;
case '?':
if (lookToLast() == '.') {
union = true;
cursor++;
continue;
} else {
break CaptureLoop;
}
case '+':
switch(lookAhead()) {
case '+':
name = new String(subArray(st, trimLeft(cursor)));
if (pCtx != null && (idx = pCtx.variableIndexOf(name)) != -1) {
lastNode = new IndexedPostFixIncNode(idx, pCtx);
} else {
lastNode = new PostFixIncNode(name, pCtx);
}
cursor += 2;
expectEOS();
return lastNode;
case '=':
name = createStringTrimmed(expr, st, cursor - st);
st = cursor += 2;
captureToEOS();
if (union) {
return lastNode = new DeepAssignmentNode(expr, st = trimRight(st), trimLeft(cursor) - st, fields, ADD, name, pCtx);
} else if (pCtx != null && (idx = pCtx.variableIndexOf(name)) != -1) {
return lastNode = new IndexedAssignmentNode(expr, st, cursor - st, fields, ADD, name, idx, pCtx);
} else {
return lastNode = new OperativeAssign(name, expr, st = trimRight(st), trimLeft(cursor) - st, ADD, fields, pCtx);
}
}
if (isDigit(lookAhead()) && cursor > 1 && (expr[cursor - 1] == 'E' || expr[cursor - 1] == 'e') && isDigit(expr[cursor - 2])) {
cursor++;
// capture = true;
continue Mainloop;
}
break CaptureLoop;
case '-':
switch(lookAhead()) {
case '-':
name = new String(subArray(st, trimLeft(cursor)));
if (pCtx != null && (idx = pCtx.variableIndexOf(name)) != -1) {
lastNode = new IndexedPostFixDecNode(idx, pCtx);
} else {
lastNode = new PostFixDecNode(name, pCtx);
}
cursor += 2;
expectEOS();
return lastNode;
case '=':
name = new String(expr, st, trimLeft(cursor) - st);
st = cursor += 2;
captureToEOS();
if (union) {
return lastNode = new DeepAssignmentNode(expr, st, cursor - st, fields, SUB, t, pCtx);
} else if (pCtx != null && (idx = pCtx.variableIndexOf(name)) != -1) {
return lastNode = new IndexedOperativeAssign(expr, st, cursor - st, SUB, idx, fields, pCtx);
} else {
return lastNode = new OperativeAssign(name, expr, st, cursor - st, SUB, fields, pCtx);
}
}
if (isDigit(lookAhead()) && cursor > 1 && (expr[cursor - 1] == 'E' || expr[cursor - 1] == 'e') && isDigit(expr[cursor - 2])) {
cursor++;
capture = true;
continue Mainloop;
}
break CaptureLoop;
/**
* Exit immediately for any of these cases.
*/
case '!':
case ',':
case '"':
case '\'':
case ';':
case ':':
break CaptureLoop;
// special compact code for recursive parses
case '\u00AB':
case '\u00BB':
case '\u00AC':
case '&':
case '^':
case '|':
case '*':
case '/':
case '%':
char op = expr[cursor];
if (lookAhead() == '=') {
name = new String(expr, st, trimLeft(cursor) - st);
st = cursor += 2;
captureToEOS();
if (union) {
return lastNode = new DeepAssignmentNode(expr, st, cursor - st, fields, opLookup(op), t, pCtx);
} else if (pCtx != null && (idx = pCtx.variableIndexOf(name)) != -1) {
return lastNode = new IndexedOperativeAssign(expr, st, cursor - st, opLookup(op), idx, fields, pCtx);
} else {
return lastNode = new OperativeAssign(name, expr, st, cursor - st, opLookup(op), fields, pCtx);
}
}
break CaptureLoop;
case '<':
if ((lookAhead() == '<' && lookAhead(2) == '=')) {
name = new String(expr, st, trimLeft(cursor) - st);
st = cursor += 3;
captureToEOS();
if (union) {
return lastNode = new DeepAssignmentNode(expr, st, cursor - st, fields, BW_SHIFT_LEFT, t, pCtx);
} else if (pCtx != null && (idx = pCtx.variableIndexOf(name)) != -1) {
return lastNode = new IndexedOperativeAssign(expr, st, cursor - st, BW_SHIFT_LEFT, idx, fields, pCtx);
} else {
return lastNode = new OperativeAssign(name, expr, st, cursor - st, BW_SHIFT_LEFT, fields, pCtx);
}
}
break CaptureLoop;
case '>':
if (lookAhead() == '>') {
if (lookAhead(2) == '=') {
name = new String(expr, st, trimLeft(cursor) - st);
st = cursor += 3;
captureToEOS();
if (union) {
return lastNode = new DeepAssignmentNode(expr, st, cursor - st, fields, BW_SHIFT_RIGHT, t, pCtx);
} else if (pCtx != null && (idx = pCtx.variableIndexOf(name)) != -1) {
return lastNode = new IndexedOperativeAssign(expr, st, cursor - st, BW_SHIFT_RIGHT, idx, fields, pCtx);
} else {
return lastNode = new OperativeAssign(name, expr, st, cursor - st, BW_SHIFT_RIGHT, fields, pCtx);
}
} else if ((lookAhead(2) == '>' && lookAhead(3) == '=')) {
name = new String(expr, st, trimLeft(cursor) - st);
st = cursor += 4;
captureToEOS();
if (union) {
return lastNode = new DeepAssignmentNode(expr, st, cursor - st, fields, BW_USHIFT_RIGHT, t, pCtx);
} else if (pCtx != null && (idx = pCtx.variableIndexOf(name)) != -1) {
return lastNode = new IndexedOperativeAssign(expr, st, cursor - st, BW_USHIFT_RIGHT, idx, fields, pCtx);
} else {
return lastNode = new OperativeAssign(name, expr, st, cursor - st, BW_USHIFT_RIGHT, fields, pCtx);
}
}
}
break CaptureLoop;
case '(':
cursor = balancedCaptureWithLineAccounting(expr, cursor, end, '(', pCtx) + 1;
continue;
case '[':
cursor = balancedCaptureWithLineAccounting(expr, cursor, end, '[', pCtx) + 1;
continue;
case '{':
if (!union)
break CaptureLoop;
cursor = balancedCaptureWithLineAccounting(expr, cursor, end, '{', pCtx) + 1;
continue;
case '~':
if (lookAhead() == '=') {
// tmp = subArray(start, trimLeft(cursor));
tmpStart = st;
int tmpOffset = cursor - st;
st = cursor += 2;
captureToEOT();
return lastNode = new RegExMatch(expr, tmpStart, tmpOffset, fields, st, cursor - st, pCtx);
}
break CaptureLoop;
case '=':
if (lookAhead() == '+') {
name = new String(expr, st, trimLeft(cursor) - st);
st = cursor += 2;
if (!isNextIdentifierOrLiteral()) {
throw new CompileException("unexpected symbol '" + expr[cursor] + "'", expr, st);
}
captureToEOS();
if (pCtx != null && (idx = pCtx.variableIndexOf(name)) != -1) {
return lastNode = new IndexedOperativeAssign(expr, st, cursor - st, ADD, idx, fields, pCtx);
} else {
return lastNode = new OperativeAssign(name, expr, st, cursor - st, ADD, fields, pCtx);
}
} else if (lookAhead() == '-') {
name = new String(expr, st, trimLeft(cursor) - st);
st = cursor += 2;
if (!isNextIdentifierOrLiteral()) {
throw new CompileException("unexpected symbol '" + expr[cursor] + "'", expr, st);
}
captureToEOS();
if (pCtx != null && (idx = pCtx.variableIndexOf(name)) != -1) {
return lastNode = new IndexedOperativeAssign(expr, st, cursor - st, SUB, idx, fields, pCtx);
} else {
return lastNode = new OperativeAssign(name, expr, st, cursor - st, SUB, fields, pCtx);
}
}
if (greedy && lookAhead() != '=') {
cursor++;
if (union) {
captureToEOS();
return lastNode = new DeepAssignmentNode(expr, st, cursor - st, fields | ASTNode.ASSIGN, pCtx);
} else if (lastWasIdentifier) {
return procTypedNode(false);
} else if (pCtx != null && ((idx = pCtx.variableIndexOf(t)) != -1 && (pCtx.isIndexAllocation()))) {
captureToEOS();
IndexedAssignmentNode ian = new IndexedAssignmentNode(expr, st = trimRight(st), trimLeft(cursor) - st, ASTNode.ASSIGN, idx, pCtx);
if (idx == -1) {
pCtx.addIndexedInput(t = ian.getAssignmentVar());
ian.setRegister(pCtx.variableIndexOf(t));
}
return lastNode = ian;
} else {
captureToEOS();
return lastNode = new AssignmentNode(expr, st, cursor - st, fields | ASTNode.ASSIGN, pCtx);
}
}
break CaptureLoop;
default:
if (cursor != end) {
if (isIdentifierPart(expr[cursor])) {
if (!union) {
break CaptureLoop;
}
cursor++;
while (cursor != end && isIdentifierPart(expr[cursor])) cursor++;
} else if ((cursor + 1) != end && isIdentifierPart(expr[cursor + 1])) {
break CaptureLoop;
} else {
cursor++;
}
} else {
break CaptureLoop;
}
}
}
/**
* Produce the token.
*/
trimWhitespace();
return createPropertyToken(st, cursor);
} else {
switch(expr[cursor]) {
case '.':
{
cursor++;
if (isDigit(expr[cursor])) {
capture = true;
continue;
}
expectNextChar_IW('{');
return lastNode = new ThisWithNode(expr, st, cursor - st - 1, cursor + 1, (cursor = balancedCaptureWithLineAccounting(expr, cursor, end, '{', pCtx) + 1) - 3, fields, pCtx);
}
case '@':
{
st++;
captureToEOT();
if (pCtx == null || (pCtx.getInterceptors() == null || !pCtx.getInterceptors().containsKey(name = new String(expr, st, cursor - st)))) {
throw new CompileException("reference to undefined interceptor: " + new String(expr, st, cursor - st), expr, st);
}
return lastNode = new InterceptorWrapper(pCtx.getInterceptors().get(name), nextToken());
}
case '=':
return createOperator(expr, st, (cursor += 2));
case '-':
if (lookAhead() == '-') {
cursor += 2;
skipWhitespace();
st = cursor;
captureIdentifier();
name = new String(subArray(st, cursor));
if (pCtx != null && (idx = pCtx.variableIndexOf(name)) != -1) {
return lastNode = new IndexedPreFixDecNode(idx, pCtx);
} else {
return lastNode = new PreFixDecNode(name, pCtx);
}
} else if ((cursor == start || (lastNode != null && (lastNode instanceof BooleanNode || lastNode.isOperator()))) && !isDigit(lookAhead())) {
captureToEOT();
return new Sign(expr, st, cursor - st, fields, pCtx);
} else if ((cursor != start && !isWhitespace(expr[cursor - 1]) && (!(lastNode != null && (lastNode instanceof BooleanNode || lastNode.isOperator())))) || !isDigit(lookAhead())) {
return createOperator(expr, st, cursor++ + 1);
} else if ((cursor - 1) != start || (!isDigit(expr[cursor - 1])) && isDigit(lookAhead())) {
cursor++;
break;
} else {
throw new CompileException("not a statement", expr, st);
}
case '+':
if (lookAhead() == '+') {
cursor += 2;
skipWhitespace();
st = cursor;
captureIdentifier();
name = new String(subArray(st, cursor));
if (pCtx != null && (idx = pCtx.variableIndexOf(name)) != -1) {
return lastNode = new IndexedPreFixIncNode(idx, pCtx);
} else {
return lastNode = new PreFixIncNode(name, pCtx);
}
}
return createOperator(expr, st, cursor++ + 1);
case '*':
if (lookAhead() == '*') {
cursor++;
}
return createOperator(expr, st, cursor++ + 1);
case ';':
cursor++;
lastWasIdentifier = false;
return lastNode = new EndOfStatement();
case '#':
case '/':
case '?':
case ':':
case '^':
case '%':
{
return createOperator(expr, st, cursor++ + 1);
}
case '(':
{
cursor++;
boolean singleToken = true;
skipWhitespace();
for (brace = 1; cursor != end && brace != 0; cursor++) {
switch(expr[cursor]) {
case '(':
brace++;
break;
case ')':
brace--;
break;
case '\'':
cursor = captureStringLiteral('\'', expr, cursor, end);
break;
case '"':
cursor = captureStringLiteral('"', expr, cursor, end);
break;
case 'i':
if (brace == 1 && isWhitespace(lookBehind()) && lookAhead() == 'n' && isWhitespace(lookAhead(2))) {
for (int level = brace; cursor != end; cursor++) {
switch(expr[cursor]) {
case '(':
brace++;
break;
case ')':
if (--brace < level) {
cursor++;
if (tokenContinues()) {
lastNode = new Fold(expr, trimRight(st + 1), cursor - st - 2, fields, pCtx);
if (expr[st = cursor] == '.')
st++;
captureToEOT();
return lastNode = new Union(expr, st = trimRight(st), cursor - st, fields, lastNode);
} else {
return lastNode = new Fold(expr, trimRight(st + 1), cursor - st - 2, fields, pCtx);
}
}
break;
case '\'':
cursor = captureStringLiteral('\'', expr, cursor, end);
break;
case '"':
cursor = captureStringLiteral('\"', expr, cursor, end);
break;
}
}
throw new CompileException("unterminated projection; closing parathesis required", expr, st);
}
break;
default:
if (expr[cursor] != '.') {
switch(expr[cursor]) {
case '[':
case ']':
break;
default:
if (!(isIdentifierPart(expr[cursor]) || expr[cursor] == '.')) {
singleToken = false;
}
}
}
}
}
if (brace != 0) {
throw new CompileException("unbalanced braces in expression: (" + brace + "):", expr, st);
}
tmpStart = -1;
if (singleToken) {
int _st;
TypeDescriptor tDescr = new TypeDescriptor(expr, _st = trimRight(st + 1), trimLeft(cursor - 1) - _st, fields);
Class cls;
try {
if (tDescr.isClass() && (cls = getClassReference(pCtx, tDescr)) != null) {
st = cursor;
captureToEOS();
return lastNode = new TypeCast(expr, st, cursor - st, cls, fields, pCtx);
}
} catch (ClassNotFoundException e) {
// fallthrough
}
}
if (tmpStart != -1) {
return handleUnion(handleSubstatement(new Substatement(expr, tmpStart, cursor - tmpStart, fields, pCtx)));
} else {
return handleUnion(handleSubstatement(new Substatement(expr, st = trimRight(st + 1), trimLeft(cursor - 1) - st, fields, pCtx)));
}
}
case '}':
case ']':
case ')':
{
throw new CompileException("unbalanced braces", expr, st);
}
case '>':
{
switch(expr[cursor + 1]) {
case '>':
if (expr[cursor += 2] == '>')
cursor++;
return createOperator(expr, st, cursor);
case '=':
return createOperator(expr, st, cursor += 2);
default:
return createOperator(expr, st, ++cursor);
}
}
case '<':
{
if (expr[++cursor] == '<') {
if (expr[++cursor] == '<')
cursor++;
return createOperator(expr, st, cursor);
} else if (expr[cursor] == '=') {
return createOperator(expr, st, ++cursor);
} else {
return createOperator(expr, st, cursor);
}
}
case '\'':
case '"':
lastNode = new LiteralNode(handleStringEscapes(subset(expr, st + 1, (cursor = captureStringLiteral(expr[cursor], expr, cursor, end)) - st - 1)), String.class);
cursor++;
if (tokenContinues()) {
return lastNode = handleUnion(lastNode);
}
return lastNode;
case '&':
{
if (expr[cursor++ + 1] == '&') {
return createOperator(expr, st, ++cursor);
} else {
return createOperator(expr, st, cursor);
}
}
case '|':
{
if (expr[cursor++ + 1] == '|') {
return createOperator(expr, st, ++cursor);
} else {
return createOperator(expr, st, cursor);
}
}
case '~':
if ((cursor++ - 1 != 0 || !isIdentifierPart(lookBehind())) && isDigit(expr[cursor])) {
st = cursor;
captureToEOT();
return lastNode = new Invert(expr, st, cursor - st, fields, pCtx);
} else if (expr[cursor] == '(') {
st = cursor--;
captureToEOT();
return lastNode = new Invert(expr, st, cursor - st, fields, pCtx);
} else {
if (expr[cursor] == '=')
cursor++;
return createOperator(expr, st, cursor);
}
case '!':
{
++cursor;
if (isNextIdentifier()) {
if (lastNode != null && !lastNode.isOperator()) {
throw new CompileException("unexpected operator '!'", expr, st);
}
st = cursor;
captureToEOT();
if ("new".equals(name = new String(expr, st, cursor - st)) || "isdef".equals(name)) {
captureToEOT();
return lastNode = new Negation(expr, st, cursor - st, fields, pCtx);
} else {
return lastNode = new Negation(expr, st, cursor - st, fields, pCtx);
}
} else if (expr[cursor] == '(') {
st = cursor--;
captureToEOT();
return lastNode = new Negation(expr, st, cursor - st, fields, pCtx);
} else if (expr[cursor] != '=')
throw new CompileException("unexpected operator '!'", expr, st, null);
else {
return createOperator(expr, st, ++cursor);
}
}
case '[':
case '{':
cursor = balancedCaptureWithLineAccounting(expr, cursor, end, expr[cursor], pCtx) + 1;
if (tokenContinues()) {
lastNode = new InlineCollectionNode(expr, st, cursor - st, fields, pCtx);
st = cursor;
captureToEOT();
if (expr[st] == '.')
st++;
return lastNode = new Union(expr, st, cursor - st, fields, lastNode);
} else {
return lastNode = new InlineCollectionNode(expr, st, cursor - st, fields, pCtx);
}
default:
cursor++;
}
}
}
if (st == cursor)
return null;
else
return createPropertyToken(st, cursor);
} catch (RedundantCodeException e) {
return nextToken();
} catch (NumberFormatException e) {
throw new CompileException("badly formatted number: " + e.getMessage(), expr, st, e);
} catch (StringIndexOutOfBoundsException e) {
throw new CompileException("unexpected end of statement", expr, cursor, e);
} catch (ArrayIndexOutOfBoundsException e) {
throw new CompileException("unexpected end of statement", expr, cursor, e);
} catch (CompileException e) {
throw ErrorUtil.rewriteIfNeeded(e, expr, cursor);
}
}
Also used :
CompileException(org.mvel2.CompileException)
Example 3 with NewObjectNode
use of org.mvel2.ast.NewObjectNode in project mvel by mvel.
the class ExpressionCompiler method verify.
protected ASTNode verify(ParserContext pCtx, ASTNode tk) {
if (tk.isOperator() && (tk.getOperator().equals(Operator.AND) || tk.getOperator().equals(Operator.OR))) {
secondPassOptimization = true;
}
if (tk.isDiscard() || tk.isOperator()) {
return tk;
} else if (tk.isLiteral()) {
/**
* Convert literal values from the default ASTNode to the more-efficient LiteralNode.
*/
if ((fields & COMPILE_IMMEDIATE) != 0 && tk.getClass() == ASTNode.class) {
return new LiteralNode(tk.getLiteralValue(), pCtx);
} else {
return tk;
}
}
if (verifying) {
if (tk.isIdentifier()) {
PropertyVerifier propVerifier = new PropertyVerifier(expr, tk.getStart(), tk.getOffset(), pCtx);
if (tk instanceof Union) {
propVerifier.setCtx(((Union) tk).getLeftEgressType());
tk.setEgressType(returnType = propVerifier.analyze());
} else {
tk.setEgressType(returnType = propVerifier.analyze());
if (propVerifier.isFqcn()) {
tk.setAsFQCNReference();
}
if (propVerifier.isClassLiteral()) {
return new LiteralNode(returnType, pCtx);
}
if (propVerifier.isInput()) {
pCtx.addInput(tk.getAbsoluteName(), propVerifier.isDeepProperty() ? Object.class : returnType);
}
if (!propVerifier.isMethodCall() && !returnType.isEnum() && !pCtx.isOptimizerNotified() && pCtx.isStrongTyping() && !pCtx.isVariableVisible(tk.getAbsoluteName()) && !tk.isFQCN()) {
throw new CompileException("no such identifier: " + tk.getAbsoluteName(), expr, tk.getStart());
}
}
} else if (tk.isAssignment()) {
Assignment a = (Assignment) tk;
if (a.getAssignmentVar() != null) {
// pCtx.makeVisible(a.getAssignmentVar());
PropertyVerifier propVerifier = new PropertyVerifier(a.getAssignmentVar(), pCtx);
tk.setEgressType(returnType = propVerifier.analyze());
if (!a.isNewDeclaration() && propVerifier.isResolvedExternally()) {
pCtx.addInput(tk.getAbsoluteName(), returnType);
}
ExecutableStatement c = (ExecutableStatement) subCompileExpression(expr, tk.getStart(), tk.getOffset(), pCtx);
if (pCtx.isStrictTypeEnforcement()) {
/**
* If we're using strict type enforcement, we need to see if this coercion can be done now,
* or fail epicly.
*/
if (!returnType.isAssignableFrom(c.getKnownEgressType()) && c.isLiteralOnly()) {
if (canConvert(c.getKnownEgressType(), returnType)) {
/**
* We convert the literal to the proper type.
*/
try {
// Don't convert to a literal for DeepOperativeAssignmentNode. Coercion will be done by BinaryOperation
if (!(a instanceof DeepOperativeAssignmentNode)) {
a.setValueStatement(new ExecutableLiteral(convert(c.getValue(null, null), returnType)));
}
return tk;
} catch (Exception e) {
// fall through.
}
} else if (returnType.isPrimitive() && unboxPrimitive(c.getKnownEgressType()).equals(returnType)) {
/**
* We ignore boxed primitive cases, since MVEL does not recognize primitives.
*/
return tk;
}
throw new CompileException("cannot assign type " + c.getKnownEgressType().getName() + " to " + returnType.getName(), expr, st);
}
}
}
} else if (tk instanceof NewObjectNode) {
// this is a bit of a hack for now.
NewObjectNode n = (NewObjectNode) tk;
List<char[]> parms = ParseTools.parseMethodOrConstructor(tk.getNameAsArray());
if (parms != null) {
for (char[] p : parms) {
MVEL.analyze(p, pCtx);
}
}
}
returnType = tk.getEgressType();
}
if (!tk.isLiteral() && tk.getClass() == ASTNode.class && (tk.getFields() & ASTNode.ARRAY_TYPE_LITERAL) == 0) {
if (pCtx.isStrongTyping())
tk.strongTyping();
tk.storePctx();
tk.storeInLiteralRegister(pCtx);
}
return tk;
}
Also used :
Union(org.mvel2.ast.Union)
CompileException(org.mvel2.CompileException)
Assignment(org.mvel2.ast.Assignment)
LiteralNode(org.mvel2.ast.LiteralNode)
NewObjectNode(org.mvel2.ast.NewObjectNode)
DeepOperativeAssignmentNode(org.mvel2.ast.DeepOperativeAssignmentNode)
CompileException(org.mvel2.CompileException)
Example 4 with NewObjectNode
use of org.mvel2.ast.NewObjectNode in project drools by kiegroup.
the class ConditionAnalyzer method analyzeNode.
private Expression analyzeNode(ASTNode node) {
node = analyzeRegEx(analyzeSubstatement(node));
if (node instanceof LiteralNode) {
LiteralNode literalNode = (LiteralNode) node;
return new FixedExpression(literalNode.getEgressType(), literalNode.getLiteralValue());
}
if (node instanceof BinaryOperation) {
BinaryOperation op = (BinaryOperation) node;
return new AritmeticExpression(analyzeNode(op.getLeft()), AritmeticOperator.fromMvelOpCode(op), analyzeNode(op.getRight()));
}
if (node instanceof TypeCast) {
ExecutableStatement statement = ((TypeCast) node).getStatement();
if (statement instanceof ExecutableAccessor) {
ExecutableAccessor accessor = (ExecutableAccessor) statement;
return new CastExpression(node.getEgressType(), analyzeNode(accessor.getNode()));
} else {
ExecutableLiteral literal = (ExecutableLiteral) statement;
return new CastExpression(node.getEgressType(), new FixedExpression(literal.getLiteral()));
}
}
if (node instanceof Union) {
ASTNode main = ((Union) node).getMain();
Accessor accessor = node.getAccessor();
EvaluatedExpression expression = new EvaluatedExpression();
expression.firstExpression = analyzeNode(main);
if (accessor instanceof DynamicGetAccessor) {
AccessorNode accessorNode = (AccessorNode) ((DynamicGetAccessor) accessor).getSafeAccessor();
expression.addInvocation(analyzeAccessorInvocation(accessorNode, node, null, null));
} else if (accessor instanceof AccessorNode) {
AccessorNode accessorNode = (AccessorNode) accessor;
while (accessorNode != null) {
expression.addInvocation(analyzeAccessorInvocation(accessorNode, node, null, null));
accessorNode = accessorNode.getNextNode();
}
} else {
throw new RuntimeException("Unexpected accessor: " + accessor);
}
return expression;
}
if (node instanceof Sign) {
ExecutableStatement statement = getFieldValue(Sign.class, "stmt", (Sign) node);
if (statement instanceof ExecutableAccessor) {
ExecutableAccessor accessor = (ExecutableAccessor) statement;
return new AritmeticExpression(new FixedExpression(0), AritmeticOperator.SUB, analyzeNode(accessor.getNode()));
} else {
ExecutableLiteral literal = (ExecutableLiteral) statement;
return new AritmeticExpression(new FixedExpression(0), AritmeticOperator.SUB, new FixedExpression(literal.getLiteral()));
}
}
Accessor accessor = node.getAccessor();
if (accessor instanceof IndexedVariableAccessor) {
String variableName = node.getName();
int dot = variableName.indexOf('.');
if (dot > 0) {
variableName = variableName.substring(0, dot);
}
Class<?> variableType = getVariableType(variableName);
return new VariableExpression(variableName, analyzeExpressionNode(((AccessorNode) accessor).getNextNode(), node, variableType), variableType != null ? variableType : node.getEgressType());
}
if (accessor == null && node instanceof NewObjectNode) {
accessor = ((NewObjectNode) node).getNewObjectOptimizer();
}
if (accessor instanceof VariableAccessor) {
VariableAccessor variableAccessor = (VariableAccessor) accessor;
AccessorNode accessorNode = variableAccessor.getNextNode();
if (accessorNode == null || !isStaticAccessor(accessorNode)) {
String variableName = (String) (variableAccessor.getProperty());
Class<?> variableType = getVariableType(variableName);
if (variableType != null) {
return new VariableExpression(variableName, analyzeExpressionNode(accessorNode, node, variableType), variableType);
} else {
if (node.getLiteralValue() instanceof ParserContext) {
ParserContext pCtx = (ParserContext) node.getLiteralValue();
// it's not a variable but a method invocation on this
Class<?> thisClass = pCtx.getInputs().get("this");
try {
return new EvaluatedExpression(new MethodInvocation(thisClass.getMethod(variableName)));
} catch (NoSuchMethodException e) {
if (node.getEgressType() == Class.class) {
// there's no method on this with the given name, check if it is a class literal
Class<?> classLiteral = pCtx.getParserConfiguration().getImport(variableName);
if (classLiteral != null) {
return new FixedExpression(Class.class, classLiteral);
}
}
throw new RuntimeException(e);
}
}
}
}
}
if (accessor == null) {
throw new RuntimeException("Null accessor on node: " + node);
}
return analyzeNodeAccessor(accessor, node);
}
Also used :
BinaryOperation(org.mvel2.ast.BinaryOperation)
ExecutableAccessor(org.mvel2.compiler.ExecutableAccessor)
FieldAccessor(org.mvel2.optimizers.impl.refl.nodes.FieldAccessor)
StaticVarAccessor(org.mvel2.optimizers.impl.refl.nodes.StaticVarAccessor)
ListAccessor(org.mvel2.optimizers.impl.refl.nodes.ListAccessor)
ExecutableAccessor(org.mvel2.compiler.ExecutableAccessor)
GetterAccessor(org.mvel2.optimizers.impl.refl.nodes.GetterAccessor)
DynamicGetAccessor(org.mvel2.optimizers.dynamic.DynamicGetAccessor)
ExprValueAccessor(org.mvel2.optimizers.impl.refl.collection.ExprValueAccessor)
MapAccessor(org.mvel2.optimizers.impl.refl.nodes.MapAccessor)
ThisValueAccessor(org.mvel2.optimizers.impl.refl.nodes.ThisValueAccessor)
Accessor(org.mvel2.compiler.Accessor)
IndexedVariableAccessor(org.mvel2.optimizers.impl.refl.nodes.IndexedVariableAccessor)
MethodAccessor(org.mvel2.optimizers.impl.refl.nodes.MethodAccessor)
VariableAccessor(org.mvel2.optimizers.impl.refl.nodes.VariableAccessor)
ConstructorAccessor(org.mvel2.optimizers.impl.refl.nodes.ConstructorAccessor)
StaticReferenceAccessor(org.mvel2.optimizers.impl.refl.nodes.StaticReferenceAccessor)
ArrayAccessor(org.mvel2.optimizers.impl.refl.nodes.ArrayAccessor)
Union(org.mvel2.ast.Union)
AccessorNode(org.mvel2.compiler.AccessorNode)
DynamicGetAccessor(org.mvel2.optimizers.dynamic.DynamicGetAccessor)
ExecutableLiteral(org.mvel2.compiler.ExecutableLiteral)
ASTNode(org.mvel2.ast.ASTNode)
ExecutableStatement(org.mvel2.compiler.ExecutableStatement)
IndexedVariableAccessor(org.mvel2.optimizers.impl.refl.nodes.IndexedVariableAccessor)
VariableAccessor(org.mvel2.optimizers.impl.refl.nodes.VariableAccessor)
LiteralNode(org.mvel2.ast.LiteralNode)
IndexedVariableAccessor(org.mvel2.optimizers.impl.refl.nodes.IndexedVariableAccessor)
NewObjectNode(org.mvel2.ast.NewObjectNode)
Sign(org.mvel2.ast.Sign)
TypeCast(org.mvel2.ast.TypeCast)
ParserContext(org.mvel2.ParserContext)
Example 5 with NewObjectNode
use of org.mvel2.ast.NewObjectNode in project mvel by mvel.
the class AbstractParser method nextToken.
/**
* Retrieve the next token in the expression.
*
* @return -
*/
protected ASTNode nextToken() {
try {
/**
* If the cursor is at the end of the expression, we have nothing more to do:
* return null.
*/
if (!splitAccumulator.isEmpty()) {
lastNode = (ASTNode) splitAccumulator.pop();
if (cursor >= end && lastNode instanceof EndOfStatement) {
return nextToken();
} else {
return lastNode;
}
} else if (cursor >= end) {
return null;
}
int brace, idx;
int tmpStart;
String name;
/**
* Because of parser recursion for sub-expression parsing, we sometimes need to remain
* certain field states. We do not reset for assignments, boolean mode, list creation or
* a capture only mode.
*/
boolean capture = false, union = false;
if ((fields & ASTNode.COMPILE_IMMEDIATE) != 0) {
debugSymbols = pCtx.isDebugSymbols();
}
if (debugSymbols) {
if (!lastWasLineLabel) {
if (pCtx.getSourceFile() == null) {
throw new CompileException("unable to produce debugging symbols: source name must be provided.", expr, st);
}
if (!pCtx.isLineMapped(pCtx.getSourceFile())) {
pCtx.initLineMapping(pCtx.getSourceFile(), expr);
}
skipWhitespace();
if (cursor >= end) {
return null;
}
int line = pCtx.getLineFor(pCtx.getSourceFile(), cursor);
if (!pCtx.isVisitedLine(pCtx.getSourceFile(), pCtx.setLineCount(line)) && !pCtx.isBlockSymbols()) {
lastWasLineLabel = true;
pCtx.visitLine(pCtx.getSourceFile(), line);
return lastNode = pCtx.setLastLineLabel(new LineLabel(pCtx.getSourceFile(), line, pCtx));
}
} else {
lastWasComment = lastWasLineLabel = false;
}
}
/**
* Skip any whitespace currently under the starting point.
*/
skipWhitespace();
/**
* From here to the end of the method is the core MVEL parsing code. Fiddling around here is asking for
* trouble unless you really know what you're doing.
*/
st = cursor;
Mainloop: while (cursor != end) {
if (isIdentifierPart(expr[cursor])) {
capture = true;
cursor++;
while (cursor != end && isIdentifierPart(expr[cursor])) cursor++;
}
if (capture) {
String t;
if (OPERATORS.containsKey(t = new String(expr, st, cursor - st)) && !Character.isDigit(expr[st])) {
switch(OPERATORS.get(t)) {
case NEW:
if (!isIdentifierPart(expr[st = cursor = trimRight(cursor)])) {
throw new CompileException("unexpected character (expected identifier): " + expr[cursor], expr, st);
}
/**
* Capture the beginning part of the token.
*/
do {
captureToNextTokenJunction();
skipWhitespace();
} while (cursor < end && expr[cursor] == '[');
/**
* If it's not a dimentioned array, continue capturing if necessary.
*/
if (cursor < end && !lastNonWhite(']'))
captureToEOT();
TypeDescriptor descr = new TypeDescriptor(expr, st, trimLeft(cursor) - st, fields);
if (pCtx.getFunctions().containsKey(descr.getClassName())) {
return lastNode = new NewObjectPrototype(pCtx, pCtx.getFunction(descr.getClassName()));
}
if (pCtx.hasProtoImport(descr.getClassName())) {
return lastNode = new NewPrototypeNode(descr, pCtx);
}
lastNode = new NewObjectNode(descr, fields, pCtx);
skipWhitespace();
if (cursor != end && expr[cursor] == '{') {
if (!((NewObjectNode) lastNode).getTypeDescr().isUndimensionedArray()) {
throw new CompileException("conflicting syntax: dimensioned array with initializer block", expr, st);
}
st = cursor;
Class egressType = lastNode.getEgressType();
if (egressType == null) {
try {
egressType = getClassReference(pCtx, descr);
} catch (ClassNotFoundException e) {
throw new CompileException("could not instantiate class", expr, st, e);
}
}
cursor = balancedCaptureWithLineAccounting(expr, st, end, expr[cursor], pCtx) + 1;
if (tokenContinues()) {
lastNode = new InlineCollectionNode(expr, st, cursor - st, fields, egressType, pCtx);
st = cursor;
captureToEOT();
return lastNode = new Union(expr, st + 1, cursor, fields, lastNode, pCtx);
} else {
return lastNode = new InlineCollectionNode(expr, st, cursor - st, fields, egressType, pCtx);
}
} else if (((NewObjectNode) lastNode).getTypeDescr().isUndimensionedArray()) {
throw new CompileException("array initializer expected", expr, st);
}
st = cursor;
return lastNode;
case ASSERT:
st = cursor = trimRight(cursor);
captureToEOS();
return lastNode = new AssertNode(expr, st, cursor-- - st, fields, pCtx);
case RETURN:
st = cursor = trimRight(cursor);
captureToEOS();
return lastNode = new ReturnNode(expr, st, cursor - st, fields, pCtx);
case IF:
return captureCodeBlock(ASTNode.BLOCK_IF);
case ELSE:
throw new CompileException("else without if", expr, st);
case FOREACH:
return captureCodeBlock(ASTNode.BLOCK_FOREACH);
case WHILE:
return captureCodeBlock(ASTNode.BLOCK_WHILE);
case UNTIL:
return captureCodeBlock(ASTNode.BLOCK_UNTIL);
case FOR:
return captureCodeBlock(ASTNode.BLOCK_FOR);
case WITH:
return captureCodeBlock(ASTNode.BLOCK_WITH);
case DO:
return captureCodeBlock(ASTNode.BLOCK_DO);
case STACKLANG:
return captureCodeBlock(STACKLANG);
case PROTO:
return captureCodeBlock(PROTO);
case ISDEF:
st = cursor = trimRight(cursor);
captureToNextTokenJunction();
return lastNode = new IsDef(expr, st, cursor - st, pCtx);
case IMPORT:
st = cursor = trimRight(cursor);
captureToEOS();
ImportNode importNode = new ImportNode(expr, st, cursor - st, pCtx);
if (importNode.isPackageImport()) {
pCtx.addPackageImport(importNode.getPackageImport());
} else {
pCtx.addImport(importNode.getImportClass().getSimpleName(), importNode.getImportClass());
}
return lastNode = importNode;
case IMPORT_STATIC:
st = cursor = trimRight(cursor);
captureToEOS();
StaticImportNode staticImportNode = new StaticImportNode(expr, st, trimLeft(cursor) - st, pCtx);
pCtx.addImport(staticImportNode.getMethod().getName(), staticImportNode.getMethod());
return lastNode = staticImportNode;
case FUNCTION:
lastNode = captureCodeBlock(FUNCTION);
st = cursor + 1;
return lastNode;
case UNTYPED_VAR:
int end;
st = cursor + 1;
while (true) {
captureToEOT();
end = cursor;
skipWhitespace();
if (cursor != end && expr[cursor] == '=') {
if (end == (cursor = st))
throw new CompileException("illegal use of reserved word: var", expr, st);
continue Mainloop;
} else {
name = new String(expr, st, end - st);
if (pCtx != null && (idx = pCtx.variableIndexOf(name)) != -1) {
splitAccumulator.add(lastNode = new IndexedDeclTypedVarNode(idx, st, end - st, Object.class, pCtx));
} else {
splitAccumulator.add(lastNode = new DeclTypedVarNode(name, expr, st, end - st, Object.class, fields, pCtx));
}
}
if (cursor == this.end || expr[cursor] != ',')
break;
else {
cursor++;
skipWhitespace();
st = cursor;
}
}
return (ASTNode) splitAccumulator.pop();
case CONTAINS:
lastWasIdentifier = false;
return lastNode = new OperatorNode(Operator.CONTAINS, expr, st, pCtx);
}
}
skipWhitespace();
/**
* If we *were* capturing a token, and we just hit a non-identifier
* character, we stop and figure out what to do.
*/
if (cursor != end && expr[cursor] == '(') {
cursor = balancedCaptureWithLineAccounting(expr, cursor, end, '(', pCtx) + 1;
}
/**
* If we encounter any of the following cases, we are still dealing with
* a contiguous token.
*/
CaptureLoop: while (cursor != end) {
switch(expr[cursor]) {
case '.':
union = true;
cursor++;
skipWhitespace();
continue;
case '?':
if (lookToLast() == '.' || cursor == start) {
union = true;
cursor++;
continue;
} else {
break CaptureLoop;
}
case '+':
switch(lookAhead()) {
case '+':
name = new String(subArray(st, trimLeft(cursor)));
if (pCtx != null && (idx = pCtx.variableIndexOf(name)) != -1) {
lastNode = new IndexedPostFixIncNode(idx, pCtx);
} else {
lastNode = new PostFixIncNode(name, pCtx);
}
cursor += 2;
expectEOS();
return lastNode;
case '=':
name = createStringTrimmed(expr, st, cursor - st);
st = cursor += 2;
captureToEOS();
if (union) {
return lastNode = new DeepOperativeAssignmentNode(expr, st = trimRight(st), trimLeft(cursor) - st, fields, ADD, name, pCtx);
} else if (pCtx != null && (idx = pCtx.variableIndexOf(name)) != -1) {
return lastNode = new IndexedAssignmentNode(expr, st, cursor - st, fields, ADD, name, idx, pCtx);
} else {
return lastNode = new OperativeAssign(name, expr, st = trimRight(st), trimLeft(cursor) - st, ADD, fields, pCtx);
}
}
if (isDigit(lookAhead()) && cursor > 1 && (expr[cursor - 1] == 'E' || expr[cursor - 1] == 'e') && isDigit(expr[cursor - 2])) {
cursor++;
// capture = true;
continue Mainloop;
}
break CaptureLoop;
case '-':
switch(lookAhead()) {
case '-':
name = new String(subArray(st, trimLeft(cursor)));
if (pCtx != null && (idx = pCtx.variableIndexOf(name)) != -1) {
lastNode = new IndexedPostFixDecNode(idx, pCtx);
} else {
lastNode = new PostFixDecNode(name, pCtx);
}
cursor += 2;
expectEOS();
return lastNode;
case '=':
name = new String(expr, st, trimLeft(cursor) - st);
st = cursor += 2;
captureToEOS();
if (union) {
return lastNode = new DeepOperativeAssignmentNode(expr, st = trimRight(st), trimLeft(cursor) - st, fields, SUB, name, pCtx);
} else if (pCtx != null && (idx = pCtx.variableIndexOf(name)) != -1) {
return lastNode = new IndexedOperativeAssign(expr, st, cursor - st, SUB, idx, fields, pCtx);
} else {
return lastNode = new OperativeAssign(name, expr, st, cursor - st, SUB, fields, pCtx);
}
}
if (isDigit(lookAhead()) && cursor > 1 && (expr[cursor - 1] == 'E' || expr[cursor - 1] == 'e') && isDigit(expr[cursor - 2])) {
cursor++;
capture = true;
continue Mainloop;
}
break CaptureLoop;
/**
* Exit immediately for any of these cases.
*/
case '!':
case ',':
case '"':
case '\'':
case ';':
case ':':
case '#':
break CaptureLoop;
// special compact code for recursive parses
case '\u00AB':
case '\u00BB':
case '\u00AC':
case '&':
case '^':
case '|':
case '*':
case '/':
case '%':
char op = expr[cursor];
if (lookAhead() == '=') {
name = new String(expr, st, trimLeft(cursor) - st);
st = cursor += 2;
captureToEOS();
if (union) {
return lastNode = new DeepOperativeAssignmentNode(expr, st = trimRight(st), trimLeft(cursor) - st, fields, opLookup(op), name, pCtx);
} else if (pCtx != null && (idx = pCtx.variableIndexOf(name)) != -1) {
return lastNode = new IndexedOperativeAssign(expr, st, cursor - st, opLookup(op), idx, fields, pCtx);
} else {
return lastNode = new OperativeAssign(name, expr, st, cursor - st, opLookup(op), fields, pCtx);
}
}
break CaptureLoop;
case '<':
if ((lookAhead() == '<' && lookAhead(2) == '=')) {
name = new String(expr, st, trimLeft(cursor) - st);
st = cursor += 3;
captureToEOS();
if (union) {
return lastNode = new DeepAssignmentNode(expr, st, cursor - st, fields, BW_SHIFT_LEFT, t, pCtx);
} else if (pCtx != null && (idx = pCtx.variableIndexOf(name)) != -1) {
return lastNode = new IndexedOperativeAssign(expr, st, cursor - st, BW_SHIFT_LEFT, idx, fields, pCtx);
} else {
return lastNode = new OperativeAssign(name, expr, st, cursor - st, BW_SHIFT_LEFT, fields, pCtx);
}
}
break CaptureLoop;
case '>':
if (lookAhead() == '>') {
if (lookAhead(2) == '=') {
name = new String(expr, st, trimLeft(cursor) - st);
st = cursor += 3;
captureToEOS();
if (union) {
return lastNode = new DeepAssignmentNode(expr, st, cursor - st, fields, BW_SHIFT_RIGHT, t, pCtx);
} else if (pCtx != null && (idx = pCtx.variableIndexOf(name)) != -1) {
return lastNode = new IndexedOperativeAssign(expr, st, cursor - st, BW_SHIFT_RIGHT, idx, fields, pCtx);
} else {
return lastNode = new OperativeAssign(name, expr, st, cursor - st, BW_SHIFT_RIGHT, fields, pCtx);
}
} else if ((lookAhead(2) == '>' && lookAhead(3) == '=')) {
name = new String(expr, st, trimLeft(cursor) - st);
st = cursor += 4;
captureToEOS();
if (union) {
return lastNode = new DeepAssignmentNode(expr, st, cursor - st, fields, BW_USHIFT_RIGHT, t, pCtx);
} else if (pCtx != null && (idx = pCtx.variableIndexOf(name)) != -1) {
return lastNode = new IndexedOperativeAssign(expr, st, cursor - st, BW_USHIFT_RIGHT, idx, fields, pCtx);
} else {
return lastNode = new OperativeAssign(name, expr, st, cursor - st, BW_USHIFT_RIGHT, fields, pCtx);
}
}
}
break CaptureLoop;
case '(':
cursor = balancedCaptureWithLineAccounting(expr, cursor, end, '(', pCtx) + 1;
continue;
case '[':
cursor = balancedCaptureWithLineAccounting(expr, cursor, end, '[', pCtx) + 1;
continue;
case '{':
if (!union)
break CaptureLoop;
cursor = balancedCaptureWithLineAccounting(expr, cursor, end, '{', pCtx) + 1;
continue;
case '~':
if (lookAhead() == '=') {
// tmp = subArray(start, trimLeft(cursor));
tmpStart = st;
int tmpOffset = cursor - st;
st = cursor += 2;
captureToEOT();
return lastNode = new RegExMatch(expr, tmpStart, tmpOffset, fields, st, cursor - st, pCtx);
}
break CaptureLoop;
case '=':
if (lookAhead() == '+') {
name = new String(expr, st, trimLeft(cursor) - st);
st = cursor += 2;
if (!isNextIdentifierOrLiteral()) {
throw new CompileException("unexpected symbol '" + expr[cursor] + "'", expr, st);
}
captureToEOS();
if (pCtx != null && (idx = pCtx.variableIndexOf(name)) != -1) {
return lastNode = new IndexedOperativeAssign(expr, st, cursor - st, ADD, idx, fields, pCtx);
} else {
return lastNode = new OperativeAssign(name, expr, st, cursor - st, ADD, fields, pCtx);
}
} else if (lookAhead() == '-') {
name = new String(expr, st, trimLeft(cursor) - st);
st = cursor += 2;
if (!isNextIdentifierOrLiteral()) {
throw new CompileException("unexpected symbol '" + expr[cursor] + "'", expr, st);
}
captureToEOS();
if (pCtx != null && (idx = pCtx.variableIndexOf(name)) != -1) {
return lastNode = new IndexedOperativeAssign(expr, st, cursor - st, SUB, idx, fields, pCtx);
} else {
return lastNode = new OperativeAssign(name, expr, st, cursor - st, SUB, fields, pCtx);
}
}
if (greedy && lookAhead() != '=') {
cursor++;
if (union) {
captureToEOS();
return lastNode = new DeepAssignmentNode(expr, st, cursor - st, fields | ASTNode.ASSIGN, pCtx);
} else if (lastWasIdentifier) {
return procTypedNode(false);
} else if (pCtx != null && ((idx = pCtx.variableIndexOf(t)) != -1 && (pCtx.isIndexAllocation()))) {
captureToEOS();
IndexedAssignmentNode ian = new IndexedAssignmentNode(expr, st = trimRight(st), trimLeft(cursor) - st, ASTNode.ASSIGN, idx, pCtx);
if (idx == -1) {
pCtx.addIndexedInput(t = ian.getVarName());
ian.setRegister(pCtx.variableIndexOf(t));
}
return lastNode = ian;
} else {
captureToEOS();
return lastNode = new AssignmentNode(expr, st, cursor - st, fields | ASTNode.ASSIGN, pCtx);
}
}
break CaptureLoop;
default:
if (cursor != end) {
if (isIdentifierPart(expr[cursor])) {
if (!union) {
break CaptureLoop;
}
cursor++;
while (cursor != end && isIdentifierPart(expr[cursor])) cursor++;
} else if ((cursor + 1) != end && isIdentifierPart(expr[cursor + 1])) {
break CaptureLoop;
} else {
cursor++;
}
} else {
break CaptureLoop;
}
}
}
/**
* Produce the token.
*/
trimWhitespace();
return createPropertyToken(st, cursor);
} else {
switch(expr[cursor]) {
case '.':
{
cursor++;
if (isDigit(expr[cursor])) {
capture = true;
continue;
}
expectNextChar_IW('{');
return lastNode = new ThisWithNode(expr, st, cursor - st - 1, cursor + 1, (cursor = balancedCaptureWithLineAccounting(expr, cursor, end, '{', pCtx) + 1) - 3, fields, pCtx);
}
case '@':
{
st++;
captureToEOT();
if (pCtx == null || (pCtx.getInterceptors() == null || !pCtx.getInterceptors().containsKey(name = new String(expr, st, cursor - st)))) {
throw new CompileException("reference to undefined interceptor: " + new String(expr, st, cursor - st), expr, st);
}
return lastNode = new InterceptorWrapper(pCtx.getInterceptors().get(name), nextToken(), pCtx);
}
case '=':
return createOperator(expr, st, (cursor += 2));
case '-':
if (lookAhead() == '-') {
cursor += 2;
skipWhitespace();
st = cursor;
captureIdentifier();
name = new String(subArray(st, cursor));
if (pCtx != null && (idx = pCtx.variableIndexOf(name)) != -1) {
return lastNode = new IndexedPreFixDecNode(idx, pCtx);
} else {
return lastNode = new PreFixDecNode(name, pCtx);
}
} else if ((cursor == start || (lastNode != null && (lastNode instanceof BooleanNode || lastNode.isOperator()))) && !isDigit(lookAhead())) {
cursor += 1;
captureToEOT();
return new Sign(expr, st, cursor - st, fields, pCtx);
} else if ((cursor != start && (lastNode != null && !(lastNode instanceof BooleanNode || lastNode.isOperator()))) || !isDigit(lookAhead())) {
return createOperator(expr, st, cursor++ + 1);
} else if ((cursor - 1) != start || (!isDigit(expr[cursor - 1])) && isDigit(lookAhead())) {
cursor++;
break;
} else {
throw new CompileException("not a statement", expr, st);
}
case '+':
if (lookAhead() == '+') {
cursor += 2;
skipWhitespace();
st = cursor;
captureIdentifier();
name = new String(subArray(st, cursor));
if (pCtx != null && (idx = pCtx.variableIndexOf(name)) != -1) {
return lastNode = new IndexedPreFixIncNode(idx, pCtx);
} else {
return lastNode = new PreFixIncNode(name, pCtx);
}
}
return createOperator(expr, st, cursor++ + 1);
case '*':
if (lookAhead() == '*') {
cursor++;
}
return createOperator(expr, st, cursor++ + 1);
case ';':
cursor++;
lastWasIdentifier = false;
return lastNode = new EndOfStatement(pCtx);
case '?':
if (cursor == start) {
cursor++;
continue;
}
case '#':
case '/':
case ':':
case '^':
case '%':
{
return createOperator(expr, st, cursor++ + 1);
}
case '(':
{
cursor++;
boolean singleToken = true;
skipWhitespace();
for (brace = 1; cursor != end && brace != 0; cursor++) {
switch(expr[cursor]) {
case '(':
brace++;
break;
case ')':
brace--;
break;
case '\'':
cursor = captureStringLiteral('\'', expr, cursor, end);
break;
case '"':
cursor = captureStringLiteral('"', expr, cursor, end);
break;
case 'i':
if (brace == 1 && isWhitespace(lookBehind()) && lookAhead() == 'n' && isWhitespace(lookAhead(2))) {
for (int level = brace; cursor != end; cursor++) {
switch(expr[cursor]) {
case '(':
brace++;
break;
case ')':
if (--brace < level) {
cursor++;
if (tokenContinues()) {
lastNode = new Fold(expr, trimRight(st + 1), cursor - st - 2, fields, pCtx);
if (expr[st = cursor] == '.')
st++;
captureToEOT();
return lastNode = new Union(expr, st = trimRight(st), cursor - st, fields, lastNode, pCtx);
} else {
return lastNode = new Fold(expr, trimRight(st + 1), cursor - st - 2, fields, pCtx);
}
}
break;
case '\'':
cursor = captureStringLiteral('\'', expr, cursor, end);
break;
case '"':
cursor = captureStringLiteral('\"', expr, cursor, end);
break;
}
}
throw new CompileException("unterminated projection; closing parathesis required", expr, st);
}
break;
default:
if (expr[cursor] != '.') {
switch(expr[cursor]) {
case '[':
case ']':
break;
default:
if (!(isIdentifierPart(expr[cursor]) || expr[cursor] == '.')) {
singleToken = false;
}
}
}
}
}
if (brace != 0) {
throw new CompileException("unbalanced braces in expression: (" + brace + "):", expr, st);
}
tmpStart = -1;
if (singleToken) {
int _st;
TypeDescriptor tDescr = new TypeDescriptor(expr, _st = trimRight(st + 1), trimLeft(cursor - 1) - _st, fields);
Class cls;
try {
if (tDescr.isClass() && (cls = getClassReference(pCtx, tDescr)) != null) {
// lookahead to check if it could be a real cast
boolean isCast = false;
for (int i = cursor; i < expr.length; i++) {
if (expr[i] == ' ' || expr[i] == '\t')
continue;
isCast = isIdentifierPart(expr[i]) || expr[i] == '\'' || expr[i] == '"' || expr[i] == '(';
break;
}
if (isCast) {
st = cursor;
captureToEOT();
return lastNode = new TypeCast(expr, st, cursor - st, cls, fields, pCtx);
}
}
} catch (ClassNotFoundException e) {
// fallthrough
}
}
if (tmpStart != -1) {
return handleUnion(handleSubstatement(new Substatement(expr, tmpStart, cursor - tmpStart, fields, pCtx)));
} else {
return handleUnion(handleSubstatement(new Substatement(expr, st = trimRight(st + 1), trimLeft(cursor - 1) - st, fields, pCtx)));
}
}
case '}':
case ']':
case ')':
{
throw new CompileException("unbalanced braces", expr, st);
}
case '>':
{
switch(expr[cursor + 1]) {
case '>':
if (expr[cursor += 2] == '>')
cursor++;
return createOperator(expr, st, cursor);
case '=':
return createOperator(expr, st, cursor += 2);
default:
return createOperator(expr, st, ++cursor);
}
}
case '<':
{
if (expr[++cursor] == '<') {
if (expr[++cursor] == '<')
cursor++;
return createOperator(expr, st, cursor);
} else if (expr[cursor] == '=') {
return createOperator(expr, st, ++cursor);
} else {
return createOperator(expr, st, cursor);
}
}
case '\'':
case '"':
lastNode = new LiteralNode(handleStringEscapes(subset(expr, st + 1, (cursor = captureStringLiteral(expr[cursor], expr, cursor, end)) - st - 1)), String.class, pCtx);
cursor++;
if (tokenContinues()) {
return lastNode = handleUnion(lastNode);
}
return lastNode;
case '&':
{
if (expr[cursor++ + 1] == '&') {
return createOperator(expr, st, ++cursor);
} else {
return createOperator(expr, st, cursor);
}
}
case '|':
{
if (expr[cursor++ + 1] == '|') {
return createOperator(expr, st, ++cursor);
} else {
return createOperator(expr, st, cursor);
}
}
case '~':
if ((cursor++ - 1 != 0 || !isIdentifierPart(lookBehind())) && isDigit(expr[cursor])) {
st = cursor;
captureToEOT();
return lastNode = new Invert(expr, st, cursor - st, fields, pCtx);
} else if (expr[cursor] == '(') {
st = cursor--;
captureToEOT();
return lastNode = new Invert(expr, st, cursor - st, fields, pCtx);
} else {
if (expr[cursor] == '=')
cursor++;
return createOperator(expr, st, cursor);
}
case '!':
{
++cursor;
if (isNextIdentifier()) {
if (lastNode != null && !lastNode.isOperator()) {
throw new CompileException("unexpected operator '!'", expr, st);
}
st = cursor;
captureToEOT();
if ("new".equals(name = new String(expr, st, cursor - st)) || "isdef".equals(name)) {
captureToEOT();
return lastNode = new Negation(expr, st, cursor - st, fields, pCtx);
} else {
return lastNode = new Negation(expr, st, cursor - st, fields, pCtx);
}
} else if (expr[cursor] == '(') {
st = cursor--;
captureToEOT();
return lastNode = new Negation(expr, st, cursor - st, fields, pCtx);
} else if (expr[cursor] == '!') {
// just ignore a double negation
++cursor;
return nextToken();
} else if (expr[cursor] != '=')
throw new CompileException("unexpected operator '!'", expr, st, null);
else {
return createOperator(expr, st, ++cursor);
}
}
case '[':
case '{':
cursor = balancedCaptureWithLineAccounting(expr, cursor, end, expr[cursor], pCtx) + 1;
if (tokenContinues()) {
lastNode = new InlineCollectionNode(expr, st, cursor - st, fields, pCtx);
st = cursor;
captureToEOT();
if (expr[st] == '.')
st++;
return lastNode = new Union(expr, st, cursor - st, fields, lastNode, pCtx);
} else {
return lastNode = new InlineCollectionNode(expr, st, cursor - st, fields, pCtx);
}
default:
cursor++;
}
}
}
if (st == cursor)
return null;
else
return createPropertyToken(st, cursor);
} catch (RedundantCodeException e) {
return nextToken();
} catch (NumberFormatException e) {
throw new CompileException("badly formatted number: " + e.getMessage(), expr, st, e);
} catch (StringIndexOutOfBoundsException e) {
throw new CompileException("unexpected end of statement", expr, cursor, e);
} catch (ArrayIndexOutOfBoundsException e) {
throw new CompileException("unexpected end of statement", expr, cursor, e);
} catch (CompileException e) {
throw ErrorUtil.rewriteIfNeeded(e, expr, cursor);
}
}
Also used :
Fold(org.mvel2.ast.Fold)
IndexedPreFixDecNode(org.mvel2.ast.IndexedPreFixDecNode)
LineLabel(org.mvel2.ast.LineLabel)
InterceptorWrapper(org.mvel2.ast.InterceptorWrapper)
ThisWithNode(org.mvel2.ast.ThisWithNode)
StaticImportNode(org.mvel2.ast.StaticImportNode)
ImportNode(org.mvel2.ast.ImportNode)
StaticImportNode(org.mvel2.ast.StaticImportNode)
Invert(org.mvel2.ast.Invert)
AssignmentNode(org.mvel2.ast.AssignmentNode)
IndexedAssignmentNode(org.mvel2.ast.IndexedAssignmentNode)
DeepOperativeAssignmentNode(org.mvel2.ast.DeepOperativeAssignmentNode)
DeepAssignmentNode(org.mvel2.ast.DeepAssignmentNode)
IndexedDeclTypedVarNode(org.mvel2.ast.IndexedDeclTypedVarNode)
IndexedPreFixDecNode(org.mvel2.ast.IndexedPreFixDecNode)
PreFixDecNode(org.mvel2.ast.PreFixDecNode)
RedundantCodeException(org.mvel2.ast.RedundantCodeException)
OperatorNode(org.mvel2.ast.OperatorNode)
BooleanNode(org.mvel2.ast.BooleanNode)
NewObjectPrototype(org.mvel2.ast.NewObjectPrototype)
LiteralNode(org.mvel2.ast.LiteralNode)
TypeDescriptor(org.mvel2.ast.TypeDescriptor)
NewObjectNode(org.mvel2.ast.NewObjectNode)
IndexedOperativeAssign(org.mvel2.ast.IndexedOperativeAssign)
TypeCast(org.mvel2.ast.TypeCast)
IndexedPreFixIncNode(org.mvel2.ast.IndexedPreFixIncNode)
Substatement(org.mvel2.ast.Substatement)
IndexedPostFixIncNode(org.mvel2.ast.IndexedPostFixIncNode)
PostFixIncNode(org.mvel2.ast.PostFixIncNode)
IndexedPostFixDecNode(org.mvel2.ast.IndexedPostFixDecNode)
Negation(org.mvel2.ast.Negation)
InlineCollectionNode(org.mvel2.ast.InlineCollectionNode)
IndexedPostFixIncNode(org.mvel2.ast.IndexedPostFixIncNode)
OperativeAssign(org.mvel2.ast.OperativeAssign)
IndexedOperativeAssign(org.mvel2.ast.IndexedOperativeAssign)
Union(org.mvel2.ast.Union)
NewPrototypeNode(org.mvel2.ast.NewPrototypeNode)
DeepOperativeAssignmentNode(org.mvel2.ast.DeepOperativeAssignmentNode)
CompileException(org.mvel2.CompileException)
IsDef(org.mvel2.ast.IsDef)
PreFixIncNode(org.mvel2.ast.PreFixIncNode)
IndexedPreFixIncNode(org.mvel2.ast.IndexedPreFixIncNode)
RegExMatch(org.mvel2.ast.RegExMatch)
EndOfStatement(org.mvel2.ast.EndOfStatement)
DeepAssignmentNode(org.mvel2.ast.DeepAssignmentNode)
ReturnNode(org.mvel2.ast.ReturnNode)
IndexedAssignmentNode(org.mvel2.ast.IndexedAssignmentNode)
IndexedPostFixDecNode(org.mvel2.ast.IndexedPostFixDecNode)
PostFixDecNode(org.mvel2.ast.PostFixDecNode)
IndexedDeclTypedVarNode(org.mvel2.ast.IndexedDeclTypedVarNode)
DeclTypedVarNode(org.mvel2.ast.DeclTypedVarNode)
AssertNode(org.mvel2.ast.AssertNode)
Sign(org.mvel2.ast.Sign)
Aggregations
LiteralNode (org.mvel2.ast.LiteralNode)4
NewObjectNode (org.mvel2.ast.NewObjectNode)4
Union (org.mvel2.ast.Union)4
CompileException (org.mvel2.CompileException)3
Sign (org.mvel2.ast.Sign)3
TypeCast (org.mvel2.ast.TypeCast)3
ParserContext (org.mvel2.ParserContext)2
ASTNode (org.mvel2.ast.ASTNode)2
BinaryOperation (org.mvel2.ast.BinaryOperation)2
DeepOperativeAssignmentNode (org.mvel2.ast.DeepOperativeAssignmentNode)2
AssertNode (org.mvel2.ast.AssertNode)1
Assignment (org.mvel2.ast.Assignment)1
AssignmentNode (org.mvel2.ast.AssignmentNode)1
BooleanNode (org.mvel2.ast.BooleanNode)1
DeclTypedVarNode (org.mvel2.ast.DeclTypedVarNode)1
DeepAssignmentNode (org.mvel2.ast.DeepAssignmentNode)1
EndOfStatement (org.mvel2.ast.EndOfStatement)1
Fold (org.mvel2.ast.Fold)1
ImportNode (org.mvel2.ast.ImportNode)1
IndexedAssignmentNode (org.mvel2.ast.IndexedAssignmentNode)1
