public override void Format(NodeExpression finalExpression, IQueryMapping mapping)
{
MethodCallNode methodCallNode = (MethodCallNode)binary.LeftNode;
ConstantNode methodCallArg = (ConstantNode)binary.RightNode;
if (!mapping.Mappings.TryGetValue(methodCallNode.MemberName, out var identifier))
{
identifier = methodCallNode.MemberName;
}
finalExpression.Append('(');
finalExpression.Append(identifier);
finalExpression.Append(' ');
finalExpression.Append(OperationAsString(binary.Operation));
finalExpression.Append(' ');
var parameterName = methodCallNode.MemberName.Replace(".", "");
var type = methodCallArg.ParameterType;
if (type != typeof(string) && (type.IsArray || typeof(IEnumerable).IsAssignableFrom(type)))
{
parameterName += "Collection";
}
finalExpression.Append(methodCallNode.Formatter($"@{parameterName}"));
finalExpression.Parameters.Add(new NodeParameter(parameterName, methodCallArg.Value));
finalExpression.Append(')');
}
public void PanickingMethodCallWithTwoOutputsThatDoesNotPanicIntoAdd_Execute_CorrectValue()
{
using (FeatureToggleSupport.TemporarilyEnableFeature(RebarFeatureToggles.ParametersAndCalls))
{
string calleeName = "callee";
NIType calleeType = DefineFunctionTypeWithTwoIntOuts(calleeName);
CompilableDefinitionName calleeDefinitionName = CreateTestCompilableDefinitionName(calleeName);
DfirRoot calleeFunction = calleeType.CreateFunctionFromSignature(calleeDefinitionName);
DataAccessor outputDataAccessor0 = DataAccessor.Create(calleeFunction.BlockDiagram, calleeFunction.DataItems[0], Direction.Input);
DataAccessor outputDataAccessor1 = DataAccessor.Create(calleeFunction.BlockDiagram, calleeFunction.DataItems[1], Direction.Input);
FunctionalNode unwrap = new FunctionalNode(calleeFunction.BlockDiagram, Signatures.UnwrapOptionType);
ConnectSomeOfIntegerToInputTerminal(unwrap.InputTerminals[0], 1);
Wire.Create(calleeFunction.BlockDiagram, unwrap.OutputTerminals[0], outputDataAccessor0.Terminal, outputDataAccessor1.Terminal);
DfirRoot callerFunction = DfirRoot.Create();
var methodCall = new MethodCallNode(callerFunction.BlockDiagram, calleeDefinitionName, calleeType);
FunctionalNode add = new FunctionalNode(callerFunction.BlockDiagram, Signatures.DefinePureBinaryFunction("Add", NITypes.Int32, NITypes.Int32));
Wire.Create(callerFunction.BlockDiagram, methodCall.OutputTerminals[0], add.InputTerminals[0]);
Wire.Create(callerFunction.BlockDiagram, methodCall.OutputTerminals[1], add.InputTerminals[1]);
FunctionalNode inspect = ConnectInspectToOutputTerminal(add.OutputTerminals[2]);
TestExecutionInstance executionInstance = CompileAndExecuteFunction(callerFunction, calleeFunction);
byte[] inspectValue = executionInstance.GetLastValueFromInspectNode(inspect);
AssertByteArrayIsInt32(inspectValue, 2);
}
}
private void Visit(AssignNode node)
{
if (node.LValue.Expression is IndexNode)
{
var indexNode = node.LValue.Expression as IndexNode;
var where = indexNode.Where;
var args = new List <BasicNode>()
{
indexNode.Index, node.Expression
};
var method = new MethodCallNode("Set", where, args);
ReplaceNode(node.Parent, node.ChildIndex, method);
Visit(indexNode.Where as dynamic);
Visit(node.Expression as dynamic);
}
else
{
Visit(node.LValue as dynamic);
Visit(node.Expression as dynamic);
}
}
private TypeDescriptor Visit(MethodCallNode node, Context context)
{
TypeDescriptor where = Visit(node.Where as dynamic, context);
var whereType = where.Type as ClassType;
if (whereType == null)
{
Log(string.Format("Невозможно вызвать метод {0}", node.MethodName), node);
return(TypeDescriptor.Undefined);
}
List <TypeInfo> types = new List <TypeInfo>();
foreach (dynamic item in node.Arguments)
{
var argType = Visit(item, context);
types.Add(argType.Type);
}
var method = whereType.GetMethod(node.MethodName, types, !where.IsObject);
if (method == null)
{
Log(string.Format("Метод {0} с данными аргументами не существует", node.MethodName), node);
return(TypeDescriptor.Undefined);
}
return(new TypeDescriptor(false, method.Ret, true));
}
public void VisitMethodCall(MocCommonMethodCall callStatic)
{
var methodCallDfir = new MethodCallNode(
_currentDiagram,
callStatic.SelectedMethodCallTarget.AssociatedEnvoy.GetCompilableDefinitionName(),
callStatic.Signature);
_map.AddMapping(callStatic, methodCallDfir);
_map.MapTerminalsInOrder(callStatic, methodCallDfir);
}
public override void OnBodyGUI()
{
base.OnBodyGUI();
if (node == null)
{
node = (MethodCallNode)target;
}
showSearchOptions = EditorGUILayout.Foldout(showSearchOptions, "Chooser Options");
if (showSearchOptions)
{
hideUnityClasses = EditorGUILayout.Toggle("Hide Unity classes", hideUnityClasses);
EditorGUILayout.BeginHorizontal();
EditorGUILayout.PrefixLabel("Search");
searchString = EditorGUILayout.TextField(searchString);
EditorGUILayout.EndHorizontal();
}
GUIContent label = (node.method.DeclaringType == null) ? new GUIContent("Select a type...") : new GUIContent(ObjectNames.NicifyVariableName(node.method.DeclaringType.Name));
if (EditorGUILayout.DropdownButton(label, FocusType.Keyboard))
{
ShowTypeSelectMenu();
}
if (node.method.DeclaringType == null)
{
return;
}
label = (node.method.Method == null) ? new GUIContent("Select a method...") : new GUIContent(node.method.Method.Name);
if (EditorGUILayout.DropdownButton(label, FocusType.Keyboard))
{
ShowMethodSelectMenu();
}
if (node.method.Method == null)
{
return;
}
//DrawInstanceDynamicPorts();
if (node.methodArgs == null)
{
return;
}
//DrawParameterSection();
}
//private TypeInfo Visit(PlusNode node)
//{
// return BinaryOperator(node, "Plus");
//}
//private TypeInfo Visit(MinusNode node)
//{
// return BinaryOperator(node, "Minus");
//}
//private TypeInfo Visit(MultNode node)
//{
// return BinaryOperator(node, "Mul");
//}
//private TypeInfo Visit(DivNode node)
//{
// return BinaryOperator(node, "Div");
//}
//private TypeInfo Visit(ModNode node)
//{
// return BinaryOperator(node, "Mod");
//}
//private TypeInfo Visit(EqualNode node)
//{
// return BinaryOperator(node, "Equals");
//}
//private TypeInfo Visit(NotEqualNode node)
//{
// return BinaryOperator(node, "NotEquals");
//}
private void Visit(IndexNode node)
{
var where = node.Where;
var args = new List <BasicNode>()
{
node.Index
};
var method = new MethodCallNode("Get", where, args);
ReplaceNode(node.Parent, node.ChildIndex, method);
Visit(where as dynamic);
Visit(node.Index as dynamic);
}
public void ParseMethodWithException()
{
Expression <Func <int> > f = () => ThrowException();
var node = NaturalExpressionParser.Parse(f.Body);
var expected = new MethodCallNode
{
Container = new ConstantNode {
Text = "PowerAssertTests.ParserTest"
},
MemberName = "ThrowException",
MemberValue = @"DivideByZeroException: Attempted to divide by zero.",
};
Assert.AreEqual(expected, node);
}
public bool VisitMethodCallNode(MethodCallNode methodCallNode)
{
VisitFunctionSignatureNode(methodCallNode, methodCallNode.Signature);
if (!RebarFeatureToggles.IsParametersAndCallsEnabled)
{
methodCallNode.SetDfirMessage(Messages.FeatureNotEnabled);
}
if (methodCallNode.TargetName.IsEmpty)
{
methodCallNode.SetDfirMessage(new DfirMessage(
MessageSeverity.Error,
SemanticAnalysisMessageCategories.Connection,
AllModelsOfComputationErrorMessages.NoValidMethodCallTarget));
}
return(true);
}
private TypeDescriptor TryToOverload(BinaryOperator node,
TypeDescriptor leftType, TypeDescriptor rightType, Context context)
{
if (!leftType.IsObject || !operatorMethodsName.ContainsKey(node.Text))
{
Log(
String.Format("Оператор {0} не может применяться для типов {1} и {2}",
node.Text,
leftType.Type,
rightType.Type),
node);
return(TypeDescriptor.Undefined);
}
var classType = leftType.Type as ClassType;
var method = classType.GetMethod(
operatorMethodsName[node.Text],
new List <TypeInfo>()
{
rightType.Type
},
false);
if (method == null)
{
Log(
String.Format("Оператор {0} не может применяться для типов {1} и {2}",
node.Text,
leftType.Type,
rightType.Type),
node);
return(TypeDescriptor.Undefined);
}
var methodCallNode = new MethodCallNode(
method.Name,
node.LeftOperand,
new List <BasicNode>()
{
node.RightOperand
});
ReplaceNode(node.Parent as CommonTree, node.ChildIndex, methodCallNode);
return(new TypeDescriptor(false, method.Ret, true));
}
public void PanickingMethodCallWithNoParametersThatDoesNotPanic_Execute_RuntimeDoesNotRegisterPanic()
{
using (FeatureToggleSupport.TemporarilyEnableFeature(RebarFeatureToggles.ParametersAndCalls))
{
string calleeName = "callee";
NIType calleeType = calleeName.DefineMethodType().CreateType();
CompilableDefinitionName calleeDefinitionName = CreateTestCompilableDefinitionName(calleeName);
DfirRoot calleeFunction = calleeType.CreateFunctionFromSignature(calleeDefinitionName);
CreateNonPanickingUnwrapOption(calleeFunction.BlockDiagram);
DfirRoot callerFunction = DfirRoot.Create();
var methodCall = new MethodCallNode(callerFunction.BlockDiagram, calleeDefinitionName, calleeType);
TestExecutionInstance executionInstance = CompileAndExecuteFunction(callerFunction, calleeFunction);
Assert.IsFalse(executionInstance.RuntimeServices.PanicOccurred);
}
}
public void ParseMethodWithException()
{
Expression <Func <int> > f = () => ThrowException();
var p = new ExpressionParser(f.Body);
var node = p.Parse();
var expected = new MethodCallNode
{
Container = new ConstantNode {
Text = "PowerAssertTests.ParserTest"
},
MemberName = "ThrowException",
MemberValue = @"(threw DivideByZeroException)",
};
Assert.AreEqual(expected, node);
}
private TypeInfo Visit(MethodCallNode node, MethodBuilder builder, CodegenContext context)
{
ClassType type = Visit(node.Where as dynamic, builder, context) as ClassType;
var argList = new List <TypeInfo>();
foreach (dynamic item in node.Arguments)
{
var arg = Visit(item, builder, context);
argList.Add(arg);
}
//TODO ПЛОХО
var methodInfo = type.GetMethod(node.MethodName, argList, type is PackageType);
builder.Call(methodInfo);
return(methodInfo.Ret);
}
public Tuple <bool, MethodCallNode> CheckMethodCall(string value)
{
MethodCallNode methodCallNode = new MethodCallNode();
methodCallNode.Name = value;
var currentToken = NextToken();
if (currentToken.Type == TokenType.OPENBRACKET)
{
Match(TokenType.IDENT);
return(new Tuple <bool, MethodCallNode>(true, methodCallNode));
}
else if (currentToken.Type == TokenType.LIKE)
{
Rewind();
return(new Tuple <bool, MethodCallNode>(false, null));
}
else
{
return(new Tuple <bool, MethodCallNode>(false, null));
}
}
public void ParseMethodAccess()
{
string s = "hello";
Expression <Func <string> > f = () => s.Substring(1);
var node = NaturalExpressionParser.Parse(f.Body);
var expected = new MethodCallNode
{
Container = new ConstantNode {
Text = "s", Value = @"""hello"""
},
MemberName = "Substring",
MemberValue = @"""ello""",
Parameters = new List <Node>()
{
new ConstantNode {
Text = "1"
}
}
};
Assert.AreEqual(expected, node);
}
public void PanickingMethodCallWithInputAndOutputThatPanicsIntoOutput_Execute_NoOutputValue()
{
using (FeatureToggleSupport.TemporarilyEnableFeature(RebarFeatureToggles.ParametersAndCalls))
{
string calleeName = "callee";
NIType calleeType = DefineFunctionTypeWithOptionIntInAndIntOut(calleeName);
CompilableDefinitionName calleeDefinitionName = CreateTestCompilableDefinitionName(calleeName);
DfirRoot calleeFunction = calleeType.CreateFunctionFromSignature(calleeDefinitionName);
DataAccessor inputDataAccessor = DataAccessor.Create(calleeFunction.BlockDiagram, calleeFunction.DataItems[0], Direction.Output);
DataAccessor outputDataAccessor = DataAccessor.Create(calleeFunction.BlockDiagram, calleeFunction.DataItems[1], Direction.Input);
FunctionalNode unwrap = new FunctionalNode(calleeFunction.BlockDiagram, Signatures.UnwrapOptionType);
Wire.Create(calleeFunction.BlockDiagram, inputDataAccessor.Terminal, unwrap.InputTerminals[0]);
Wire.Create(calleeFunction.BlockDiagram, unwrap.OutputTerminals[0], outputDataAccessor.Terminal);
DfirRoot callerFunction = DfirRoot.Create();
var methodCall = new MethodCallNode(callerFunction.BlockDiagram, calleeDefinitionName, calleeType);
FunctionalNode noneInteger = CreateNoneOfOptionIntegerType(callerFunction.BlockDiagram);
Wire.Create(callerFunction.BlockDiagram, noneInteger.OutputTerminals[0], methodCall.InputTerminals[0]);
ConnectOutputToOutputTerminal(methodCall.OutputTerminals[0]);
TestExecutionInstance executionInstance = CompileAndExecuteFunction(callerFunction, calleeFunction);
AssertNoOutput(executionInstance);
}
}
internal override void Visit(MethodCallNode node)
{
}
bool IDfirNodeVisitor <bool> .VisitMethodCallNode(MethodCallNode methodCallNode)
{
AutoBorrowNodeFacade.GetNodeFacade(methodCallNode).SetLifetimeInterruptedVariables(_lifetimeVariableAssociation);
return(true);
}
bool IDfirNodeVisitor <bool> .VisitMethodCallNode(MethodCallNode methodCallNode)
{
VisitFunctionSignatureNode(methodCallNode, methodCallNode.Signature);
return(true);
}
public static LLVMValueRef GetImportedSynchronousFunction(this FunctionModuleContext moduleContext, MethodCallNode methodCallNode)
{
string targetFunctionName = FunctionCompileHandler.FunctionLLVMName(methodCallNode.TargetName);
return(moduleContext.GetImportedFunction(
FunctionNames.GetSynchronousFunctionName(targetFunctionName),
() => moduleContext.LLVMContext.TranslateFunctionType(methodCallNode.Signature)));
}
bool IDfirNodeVisitor <bool> .VisitMethodCallNode(MethodCallNode methodCallNode)
{
methodCallNode.CreateFacadesForFunctionSignatureNode(methodCallNode.Signature);
return(true);
}
private void DecomposeMethodCall(MethodCallNode methodCallNode, bool isYielding, bool mayPanic)
{
NIType outputType;
// TODO: try to use something like Unit or Void
NIType emptyOutputType = NITypes.Boolean;
switch (methodCallNode.OutputTerminals.Count)
{
case 0:
outputType = emptyOutputType;
break;
case 1:
outputType = methodCallNode.OutputTerminals[0].GetTrueVariable().Type;
break;
default:
outputType = methodCallNode.OutputTerminals.Select(t => t.GetTrueVariable().Type).DefineTupleType();
break;
}
AutoBorrowNodeFacade methodCallNodeFacade = AutoBorrowNodeFacade.GetNodeFacade(methodCallNode);
AwaitNode awaitNode = null;
if (isYielding)
{
CreateMethodCallPromise createMethodCallPromise = new CreateMethodCallPromise(methodCallNode.ParentDiagram, methodCallNode.Signature, methodCallNode.TargetName);
AutoBorrowNodeFacade createMethodCallPromiseFacade = AutoBorrowNodeFacade.GetNodeFacade(createMethodCallPromise);
foreach (var terminalPair in methodCallNode.InputTerminals.Zip(createMethodCallPromise.InputTerminals))
{
Terminal methodCallTerminal = terminalPair.Key, createMethodCallPromiseTerminal = terminalPair.Value;
methodCallTerminal.ConnectedTerminal.ConnectTo(createMethodCallPromiseTerminal);
createMethodCallPromiseFacade[createMethodCallPromiseTerminal] = methodCallNodeFacade[methodCallTerminal];
}
Terminal methodCallOutputTerminal = methodCallNode.OutputTerminals.FirstOrDefault();
NIType awaitOutputType = mayPanic ? outputType.CreatePanicResult() : outputType;
NIType promiseType = awaitOutputType.CreateMethodCallPromise();
Terminal promiseTerminal = createMethodCallPromise.OutputTerminals[0];
createMethodCallPromiseFacade[promiseTerminal] = new SimpleTerminalFacade(
promiseTerminal,
createMethodCallPromise.GetTypeVariableSet().CreateTypeVariableReferenceFromNIType(promiseType));
awaitNode = ConnectNewNodeToOutputTerminalWithOutputFacade(createMethodCallPromise, diagram => new AwaitNode(diagram), awaitOutputType);
VariableSet variableSet = awaitNode.GetVariableSet();
TypeVariableReference outputTypeVariable = awaitNode.OutputTerminal.GetTrueVariable().TypeVariableReference;
TypeVariableReference pollResultTypeVariable = variableSet.TypeVariableSet.CreateReferenceToOptionType(outputTypeVariable);
awaitNode.PollResultVariable = variableSet.CreateNewVariable(
diagramId: 0,
variableType: pollResultTypeVariable,
mutable: false);
}
Node outputNode = awaitNode;
if (mayPanic)
{
Node panicOrContinueInput = awaitNode;
if (!isYielding)
{
// Create PanickingMethodCall as input to PanicOrContinue
throw new NotImplementedException("Calling non-yielding panicking methods not supported yet.");
}
outputNode = ConnectNewNodeToOutputTerminalWithOutputFacade(
panicOrContinueInput,
diagram => new PanicOrContinueNode(diagram),
outputType);
}
Terminal outputNodeTerminal = outputNode.OutputTerminals[0];
switch (methodCallNode.OutputTerminals.Count)
{
case 0:
// no method call output terminals; drop the result of the await
InsertDropTransform.InsertDropForVariable(outputNode.ParentDiagram, LiveVariable.FromTerminal(outputNodeTerminal), _unificationResultFactory);
break;
case 1:
ConnectOutputTerminal(methodCallNode.OutputTerminals[0], outputNodeTerminal);
break;
default:
{
// for >1 method call output terminals, decompose the tuple result of the await and match each
// decomposed terminal to a method call terminal
DecomposeTupleNode decomposeTupleNode = InsertDropTransform.InsertDecompositionForTupleVariable(
methodCallNode.ParentDiagram,
LiveVariable.FromTerminal(outputNodeTerminal),
_unificationResultFactory);
foreach (var pair in methodCallNode.OutputTerminals.Zip(decomposeTupleNode.OutputTerminals))
{
Terminal methodCallTerminal = pair.Key, decomposeTupleTerminal = pair.Value;
ConnectOutputTerminal(methodCallTerminal, decomposeTupleTerminal);
}
break;
}
}
methodCallNode.RemoveFromGraph();
}
//implementation with List and Operator Stack convert infix espression (5 + 3 * 2 - 1) to postfix expression and then calculate value ( 10 )
//first convert infix to postfix expression and save in list (5 + 3 * 2 - 1 => 5 3 2 * 1 - +)
//5 => to List ( 5 )
//+ => to Operator Stack ( + )
//3 => to List ( 5, 3 )
//* => to Operator Stack ( +, * )
//2 => to List ( 5, 3, 2 )
//- => lower precedence than * on Stack => to List ( 5, 3, 2, * ) => Operator Stack ( +, - )
//1 => to List ( 5, 3, 2, *, 1 )
//pop Operator Stack ( +, - ) => to List ( 5, 3, 2, *, 1, -, + )
//second calculate the result out of the genenerated list with the postfix expression with a Stack
//5 => Stack ( 5 )
//3 => Stack ( 5, 3 )
//2 => Stack ( 5, 3, 2 )
//* => 2 from Stack 3 from Stack change operators ( 5 ) => calculate 3 * 2 = 6 => Stack ( 5, 6 )
//1 => Stack ( 5, 6, 1 )
//- => 1 from Stack 6 from Stack change operators ( 5 ) => calculate 6 - 1 = 5 => Stack ( 5, 5 )
//+ => 5 from Stack 5 from Stack change operators ( ) => calculate 5 + 5 => Stack ( 10 )
public List <AbstractSyntaxTreeNode> ConvertInfixToPostfix(List <AbstractSyntaxTreeNode> postfixList)
{
List <AbstractSyntaxTreeNode> returnList = new List <AbstractSyntaxTreeNode>();
Stack <AbstractSyntaxTreeNode> operatorStack = new Stack <AbstractSyntaxTreeNode>();
var position = 0;
var methodParameterMode = false;
MethodCallNode methodCallNode = null;
for (int i = position; i < postfixList.Count; i++)
{
var item = postfixList[i];
if (item is IntegerNode || item is DoubleNode || item is VariableNode ||
item is BooleanNode || item is StringNode || item is NullNode)
{
if (methodParameterMode)
{
}
else
{
returnList.Add(item);
}
}
else if (item is OpenBracketNode)
{
if (methodParameterMode)
{
}
else
{
i = ConvertInfixToPostfixBracket(i, postfixList, returnList);
}
}
else if (item is CloseBracketNode)
{
methodParameterMode = false;
}
else if (item is OrNode || item is AndNode)
{
while (operatorStack.Count > 0)
{
var abstractSyntaxTreeNode = operatorStack.Pop();
returnList.Add(abstractSyntaxTreeNode);
}
operatorStack.Push(item);
}
else if (item is GreaterThenNode || item is GreaterThenOrEqualNode ||
item is SmallerThenNode || item is SmallerThenOrEqualNode ||
item is EqualNode || item is UnEqualNode || item is IsNode || item is LikeNode)
{
if (operatorStack.Count() > 0 && (operatorStack.Peek() is MulNode ||
operatorStack.Peek() is DivNode ||
operatorStack.Peek() is ModuloNode))
{
AbstractSyntaxTreeNode node = operatorStack.Pop();
returnList.Add(node);
}
else if (operatorStack.Count() > 0 && (operatorStack.Peek() is AddNode ||
operatorStack.Peek() is SubNode))
{
AbstractSyntaxTreeNode node = operatorStack.Pop();
returnList.Add(node);
}
operatorStack.Push(item);
}
else if (item is AddNode || item is SubNode)
{
if (operatorStack.Count() > 0 && (operatorStack.Peek() is MulNode ||
operatorStack.Peek() is DivNode ||
operatorStack.Peek() is ModuloNode))
{
AbstractSyntaxTreeNode node = operatorStack.Pop();
returnList.Add(node);
}
operatorStack.Push(item);
}
else if (item is MulNode || item is DivNode || item is ModuloNode)
{
operatorStack.Push(item);
}
else if (item is SetNode || item is ThenNode || item is ElseNode)
{
if (postfixList[i + 1] is MethodCallNode)
{
methodCallNode = (MethodCallNode)postfixList[i + 1];
i = ConvertMethodInfixToPostfixBracket(i + 1, postfixList, methodCallNode);
returnList.Add(item);
returnList.Add(methodCallNode);
}
else
{
operatorStack.Push(item);
}
}
else if (item is MethodCallNode)
{
methodCallNode = (MethodCallNode)item;
i = ConvertMethodInfixToPostfixBracket(i, postfixList, methodCallNode);
returnList.Add(methodCallNode);
}
position++;
}
while (operatorStack.Count > 0)
{
var abstractSyntaxTreeNode = operatorStack.Pop();
returnList.Add(abstractSyntaxTreeNode);
}
return(returnList);
}
public int ConvertInfixToPostfixBracket(int position,
List <AbstractSyntaxTreeNode> postfixList, List <AbstractSyntaxTreeNode> returnList)
{
Stack <AbstractSyntaxTreeNode> operatorStack = new Stack <AbstractSyntaxTreeNode>();
int i = 0;
var methodParameterMode = false;
MethodCallNode methodCallNode = null;
for (i = position + 1; i < postfixList.Count; i++)
{
var item = postfixList[i];
if (item is CloseBracketNode)
{
break;
}
if (item is IntegerNode || item is DoubleNode || item is VariableNode ||
item is FieldNode || item is CollectionNode || item is ObjectNode ||
item is BooleanNode || item is StringNode)
{
if (methodParameterMode)
{
}
else
{
returnList.Add(item);
}
}
else if (item is UpperNode || item is LowerNode || item is LengthNode ||
item is TrimNode || item is LeftTrimNode || item is RightTrimNode)
{
returnList.Add(item);
}
else if (item is OpenBracketNode)
{
if (methodParameterMode)
{
}
else
{
i = ConvertInfixToPostfixBracket(i, postfixList, returnList);
}
}
else if (item is OrNode || item is AndNode)
{
while (operatorStack.Count > 0)
{
var abstractSyntaxTreeNode = operatorStack.Pop();
returnList.Add(abstractSyntaxTreeNode);
}
operatorStack.Push(item);
}
else if (item is GreaterThenNode || item is GreaterThenOrEqualNode ||
item is SmallerThenNode || item is SmallerThenOrEqualNode ||
item is EqualNode || item is UnEqualNode)
{
if (operatorStack.Count() > 0 && (operatorStack.Peek() is MulNode || operatorStack.Peek() is DivNode ||
operatorStack.Peek() is ModuloNode))
{
AbstractSyntaxTreeNode node = operatorStack.Pop();
returnList.Add(node);
}
if (operatorStack.Count() > 0 && (operatorStack.Peek() is AddNode || operatorStack.Peek() is SubNode))
{
AbstractSyntaxTreeNode node = operatorStack.Pop();
returnList.Add(node);
}
operatorStack.Push(item);
}
else if (item is AddNode || item is SubNode)
{
if (operatorStack.Count() > 0 && (operatorStack.Peek() is MulNode || operatorStack.Peek() is DivNode ||
operatorStack.Peek() is ModuloNode))
{
AbstractSyntaxTreeNode node = operatorStack.Pop();
returnList.Add(node);
}
operatorStack.Push(item);
}
else if (item is MulNode || item is DivNode || item is ModuloNode)
{
operatorStack.Push(item);
}
else if (item is MethodCallNode)
{
methodParameterMode = true;
methodCallNode = (MethodCallNode)item;
i = ConvertMethodInfixToPostfixBracket(i, postfixList, methodCallNode);
returnList.Add(methodCallNode);
methodParameterMode = false;
}
position++;
}
while (operatorStack.Count > 0)
{
var abstractSyntaxTreeNode = operatorStack.Pop();
returnList.Add(abstractSyntaxTreeNode);
}
return(i);
}