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/// <summary> /// Takes current result and wraps it into try-filter(MethodUnwinder)-finally block that ensures correct "break" behavior for /// Ruby method calls with a block given in arguments. /// /// Sets up a RFC frame similarly to MethodDeclaration. /// </summary> internal static void ApplyBlockFlowHandlingInternal(MetaObjectBuilder /*!*/ metaBuilder, CallArguments /*!*/ args) { // TODO (improvement): // We don't special case null block here, although we could (we would need a test for that then). // We could also statically know (via call-site flag) that the current method is not a proc-converter (passed by ref), // which would make such calls faster. if (metaBuilder.Error || !args.Signature.HasBlock) { return; } Expression rfcVariable = metaBuilder.GetTemporary(typeof(RuntimeFlowControl), "#rfc"); ParameterExpression methodUnwinder = metaBuilder.GetTemporary(typeof(MethodUnwinder), "#unwinder"); Expression resultVariable = metaBuilder.GetTemporary(typeof(object), "#result"); metaBuilder.Result = Ast.Block( // initialize frame (RFC): Ast.Assign(rfcVariable, Methods.CreateRfcForMethod.OpCall(AstUtils.Convert(args.GetBlockExpression(), typeof(Proc)))), AstUtils.Try( Ast.Assign(resultVariable, metaBuilder.Result) ).Filter(methodUnwinder, Ast.Equal(Ast.Field(methodUnwinder, MethodUnwinder.TargetFrameField), rfcVariable), // return unwinder.ReturnValue; Ast.Assign(resultVariable, Ast.Field(methodUnwinder, MethodUnwinder.ReturnValueField)) ).Finally( // we need to mark the RFC dead snce the block might escape and break later: Ast.Assign(Ast.Field(rfcVariable, RuntimeFlowControl.IsActiveMethodField), Ast.Constant(false)) ), resultVariable ); }
public TExSB(Expression ex) : base(ex) { bpi = TExPI.Box(Ex.Field(ex, "bpi")); scale = Ex.Field(ex, "scale"); direction = new TExV2(Ex.Field(ex, "direction")); velocity = new TExMov(Ex.Field(ex, "movement")); }
protected TExSB(ExMode m, string?name) : base(m, name) { bpi = TExPI.Box(Ex.Field(ex, "bpi")); scale = Ex.Field(ex, "scale"); direction = new TExV2(Ex.Field(ex, "direction")); velocity = new TExMov(Ex.Field(ex, "movement")); }
public static Func <T, TR> FieldGet <T, TR>(this Type type, string fieldName) { var param = Expression.Parameter(type, "arg"); var member = Expression.Field(param, fieldName); var lambda = Expression.Lambda(member, param); return((Func <T, TR>)lambda.Compile()); }
public TExRV2(Expression ex) : base(ex) { nx = Ex.Field(ex, "nx"); ny = Ex.Field(ex, "ny"); rx = Ex.Field(ex, "rx"); ry = Ex.Field(ex, "ry"); angle = Ex.Field(ex, "angle"); }
public TExRV2(ExMode m, string?name) : base(m, name) { nx = Ex.Field(ex, "nx"); ny = Ex.Field(ex, "ny"); rx = Ex.Field(ex, "rx"); ry = Ex.Field(ex, "ry"); angle = Ex.Field(ex, "angle"); }
public static Getter <TG> FieldGet <TG>(string fieldName) { var type = Expression.Parameter(typeof(T), "type"); var field = Expression.Field(type, fieldName); var lambda = Expression.Lambda(field, type); return((Getter <TG>)lambda.Compile()); }
public void MemberAccess_field_expression() { var expression = LinqExpression.Field( LinqExpression.Parameter(typeof(SampleClass)), nameof(SampleClass.InstanceField)); ShouldRoundrip(expression); }
public void MemberAccess_field_type() { var expression = LinqExpression.Field( null, typeof(SampleClass), nameof(SampleClass.StaticField)); ShouldRoundrip(expression); }
public static Func <object, object> FieldGet(this Type type, string fieldName) { var param = Expression.Parameter(typeof(object), "arg"); var paramCast = Expression.Convert(param, type); var member = Expression.Field(paramCast, fieldName); var memberCast = Expression.Convert(member, typeof(object)); var lambda = Expression.Lambda(memberCast, param); return((Func <object, object>)lambda.Compile()); }
protected TExPI(ExMode m, string?name) : base(m, name) { id = Ex.Field(ex, "id"); t = Ex.Field(ex, "t"); loc = Ex.Field(ex, "loc"); locx = Ex.Field(loc, "x"); locy = Ex.Field(loc, "y"); index = Ex.Field(ex, "index"); findex = Ex.Convert(index, ExUtils.tfloat); }
Exp Call(Exp obj, string name, Exp arg0) { return(Exp.Call(obj, Callvirt, Exp.Constant(name), Exp.Block ( Exp.Assign(Exp.Field(arg1, "self"), obj), Exp.Assign(Exp.ArrayAccess(Exp.Field(arg1, "Input"), Exp.Constant(0)), arg0), arg1 ))); }
/// <summary>Generate a specific member getter for a specific type</summary> /// <typeparam name="T">The type which contains the member</typeparam> /// <typeparam name="TResult">The static member's actual type</typeparam> /// <param name="memberName">The member's name as defined in <typeparamref name="T"/></param> /// <returns>A compiled lambda which can access (get) the static member</returns> /// <remarks>Generates a method similar to this: /// <code> /// TResult GetMethod() /// { /// return T.memberName; /// } /// </code> /// </remarks> public static Func <TResult> GenerateStaticFieldGetter <T, TResult>(string memberName) { Contract.Requires <ArgumentException>(!string.IsNullOrEmpty(memberName)); Contract.Ensures(Contract.Result <Func <TResult> >() != null); var member = Expr.Field(null, typeof(T), memberName); // basically 'T.memberName' var lambda = Expr.Lambda <Func <TResult> >(member); return(lambda.Compile()); }
public TExPI(Expression ex) : base(ex) { id = Ex.Field(ex, "id"); t = Ex.Field(ex, "t"); loc = Ex.Field(ex, "loc"); locx = Ex.Field(loc, "x"); locy = Ex.Field(loc, "y"); index = Ex.Field(ex, "index"); findex = Ex.Convert(index, ExUtils.tfloat); }
public TExGCX(Expression ex_) : base(ex_) { fs = Ex.Field(ex, "fs"); v2s = Ex.Field(ex, "v2s"); v3s = Ex.Field(ex, "v3s"); rv2s = Ex.Field(ex, "rv2s"); index = Ex.Field(ex, "index"); i_float = Ex.Field(ex, "i").As <float>(); pi_float = Ex.Field(ex, "pi").As <float>(); beh_loc = Ex.Property(ex, "Loc"); bpi = Ex.Property(ex, "AsBPI"); }
public static Setter <TS> FieldSet <TS>(string fieldName) { var type = Expression.Parameter(typeof(T), "type"); var value = Expression.Parameter(typeof(TS), "value"); var field = Expression.Field(type, fieldName); #if NET_40 && !WINDOWS_PHONE var assign = Expression.Assign(field, value); #else var assign = Expression.Call(MethodInfoAssign, field, value); #endif var lambda = Expression.Lambda(assign, type, value); return((Setter <TS>)lambda.Compile()); }
public void ReplaceMember() { var x = V <Vector2>("x"); var y = VF("y"); var ex = Ex.Block(new[] { x }, Ex.Assign(x, ExC(new Vector2(2f, 3f))), Ex.Field(x, "x").Add(ExC(6f))); AreEqual("((x=(2.0, 3.0));\n(x.x+6);)", ex.Debug()); AreEqual("((x=(2.0, 3.0));\n8;)", ex.FlatDebug()); AreEqual(Compile(ex.Flatten()), 8f); ex = Ex.Block(new[] { x }, Ex.Assign(x, ExC(new Vector2(2f, 3f))), Ex.IfThen(y.GT(E1), x.Is(ExC(Vector2.right))), Ex.Add(Ex.Field(x, "x"), ExC(6f))); AreEqual("((x=(2.0, 3.0));\nif(y>1){(x=(1.0, 0.0))}else{};\n(x.x+6);)", ex.FlatDebug()); ex = Ex.Block(new[] { x }, x.Is(ExC(new Vector2(2f, 3f))), Ex.IfThen(y.GT(E1), Ex.Field(x, "x").Is(ExC(6f))), Ex.Add(Ex.Field(x, "x"), ExC(6f))); AreEqual("((x=(2.0, 3.0));\nif(y>1){(x.x=6)}else{};\n(x.x+6);)", ex.FlatDebug()); }
/// <summary> /// Takes current result and wraps it into try-filter(MethodUnwinder)-finally block that ensures correct "break" behavior for /// library method calls with block given in bfcVariable (BlockParam). /// </summary> internal static void ApplyBlockFlowHandlingInternal(MetaObjectBuilder /*!*/ metaBuilder, CallArguments /*!*/ args) { if (metaBuilder.Error) { return; } Expression expression = metaBuilder.Result; Expression bfcVariable = metaBuilder.BfcVariable; // Method call with proc can invoke control flow that returns an arbitrary value from the call, so we need to type result to Object. // Otherwise, the result could only be result of targetExpression unless its return type is void. Type resultType = (bfcVariable != null) ? typeof(object) : expression.Type; Expression resultVariable; if (resultType != typeof(void)) { resultVariable = metaBuilder.GetTemporary(resultType, "#result"); } else { resultVariable = Expression.Empty(); } if (expression.Type != typeof(void)) { expression = Ast.Assign(resultVariable, AstUtils.Convert(expression, resultType)); } // a non-null proc is being passed to the callee: if (bfcVariable != null) { ParameterExpression methodUnwinder = metaBuilder.GetTemporary(typeof(MethodUnwinder), "#unwinder"); expression = AstFactory.Block( Ast.Assign(bfcVariable, Methods.CreateBfcForLibraryMethod.OpCall(AstUtils.Convert(args.GetBlockExpression(), typeof(Proc)))), AstUtils.Try( expression ).Filter(methodUnwinder, Methods.IsProcConverterTarget.OpCall(bfcVariable, methodUnwinder), Ast.Assign(resultVariable, Ast.Field(methodUnwinder, MethodUnwinder.ReturnValueField)) ).Finally( Methods.LeaveProcConverter.OpCall(bfcVariable) ), resultVariable ); } metaBuilder.Result = expression; }
/// <summary>Generate a specific static field setter for a specific reference type</summary> /// <typeparam name="T">The type which contains the member</typeparam> /// <typeparam name="TValue">The static member's actual type</typeparam> /// <param name="memberName">The member's name as defined in <typeparamref name="T"/></param> /// <returns>A compiled lambda which can access (set) the member</returns> /// <exception cref="MemberAccessException"><paramref name="memberName"/> is readonly</exception> /// <remarks>Generates a method similar to this: /// <code> /// void SetMethod(TValue value) /// { /// T.memberName = value; /// } /// </code> /// </remarks> public static Action <TValue> GenerateStaticFieldSetter <T, TValue>(string memberName) where T : class { Contract.Requires <ArgumentException>(!string.IsNullOrEmpty(memberName)); Contract.Ensures(Contract.Result <Action <TValue> >() != null); var param_value = Expr.Parameter(typeof(TValue), kValueName); // the member's new value var member = Expr.Field(null, typeof(T), memberName); // i.e., 'T.memberName' ValidateMemberForGenerateSetter(member.Member); var assign = Expr.Assign(member, param_value); // i.e., 'T.memberName = value' var lambda = Expr.Lambda <Action <TValue> >(assign, param_value); return(lambda.Compile()); }
public static Func <object, object, object> FieldSet(this Type type, string fieldName) { var param = Expression.Parameter(typeof(object), "arg"); var paramCast = Expression.Convert(param, type); var member = Expression.Field(paramCast, fieldName); var value = Expression.Parameter(typeof(object), "value"); #if NET_40 && !WINDOWS_PHONE var valueCast = Expression.Convert(value, member.Type); var assign = Expression.Assign(member, valueCast); var memberCast = Expression.Convert(assign, typeof(object)); var lambda = Expression.Lambda(memberCast, param, value); #else // TODO: Check this alternative var memberCast = Expression.Convert(member, typeof(object)); var assign = Expression.Call(Class <object> .MethodInfoAssign, memberCast, value); var lambda = Expression.Lambda(assign, param, value); #endif return((Func <object, object, object>)lambda.Compile()); }
public GlobalExpr() { expr = LinqExpr.Field(LinqExpr.Constant(this), typeof(GlobalExpr <T>), "x"); }
/// <summary> /// Creates verifier which checks object public properties. /// </summary> /// <typeparam name="TVerifier">Verifier type.</typeparam> /// <param name="propertyFilter">Object public properties filter; can be null to generate code for all the properties.</param> /// <param name="checkExprFunc">Function which generates property value check expression (if returns true then check is failed). /// Function obtains variable which holds property value and additional arguments.</param> /// <param name="createExceptionExpr">New exception creation expression used when check is failed.</param> /// <returns>Verifier instance.</returns> public static TVerifier Create <TVerifier>( Func <Type, bool> propertyFilter, Func <Expression, IList <ParameterExpression>, Expr> checkExprFunc, LambdaExpression createExceptionExpr) where TVerifier : class { VerifyUtil.NotNull(checkExprFunc, "checkExprFunc"); VerifyUtil.NotNull(createExceptionExpr, "createExceptionExpr"); Type argumentsType = typeof(TVerifier).GetGenericArguments()[0]; Type type = argumentsType.GetGenericArguments()[0]; // Prepare lambda action parameters - first is Argument<T>, others are additionalParamTypes var objectParam = Expr.Parameter(argumentsType); var objectVar = Expr.Parameter(type); var genericArguments = typeof(TVerifier).GetGenericArguments(); var additionalParams = genericArguments.Skip(1).Take(genericArguments.Length - 2).Select(Expr.Parameter).ToList(); Expr lambdaBody; if (type.IsAnonymous()) { // Take createExceptionExpr lambda, extract first parameter from it and replace additional parameters in body var exceptionNameParam = createExceptionExpr.Parameters[0]; var exceptionObjectParam = createExceptionExpr.Parameters[1]; var exceptionBody = createExceptionExpr.ReplaceParams(additionalParams); // Obtain type public properties to check propertyFilter = propertyFilter ?? (_ => true); var properties = type.GetProperties().OrderBy(pi => pi.Name).Where(pi => propertyFilter(pi.PropertyType)); // Obtain argument values from fields since it's faster var fields = type.GetFields(BindingFlags.NonPublic | BindingFlags.Instance).OrderBy(fi => fi.Name).Where(fi => propertyFilter(fi.FieldType)).ToList(); // Generate "if (checkExpr) then throw createExceptionExpr;" for each of the properties var propertyChecks = properties .Select( (pi, i) => { var valueVar = Expr.Field(objectVar, fields[i]); return((Expr)Expr.IfThen( checkExprFunc(valueVar, additionalParams), Expr.Throw( exceptionBody .Replace(exceptionNameParam, Expr.Constant(pi.Name)) .Replace(exceptionObjectParam, valueVar.ConvertIfNeeded(exceptionObjectParam.Type))))); }) .ToList(); // Prepare null check - if null is supplied then all checks are passed since nothing to check var checksBody = propertyChecks.Any() ? Expr.IfThen( Expr.ReferenceNotEqual(objectVar, Expr.Constant(null, type)), propertyChecks.Count > 1 ? Expr.Block(propertyChecks) : propertyChecks[0]) : null; lambdaBody = propertyChecks.Any() ? (Expr)Expr.Block( new[] { objectVar }, new Expr[] { Expr.Assign(objectVar, Expr.Field(objectParam, "Holder")) } .Concat(new[] { checksBody }) .Concat(new[] { objectParam })) : objectParam; } else { // Not anonymous type - throw an exception lambdaBody = Expr.Block( Expr.Throw( Expr.New( VerifyArgsExceptionCtor, Expr.Constant(string.Format(ErrorMessages.NotAnonymousType, type)))), objectParam); } // Pull it all together, execute checks only if supplied object is not null var lambda = Expr.Lambda <TVerifier>( lambdaBody, new[] { objectParam }.Concat(additionalParams)); return(lambda.Compile()); }
public TExV2(ExMode m, string?name) : base(m, name) { x = Ex.Field(ex, "x"); y = Ex.Field(ex, "y"); }
public TExV2(Expression ex) : base(ex) { x = Ex.Field(ex, "x"); y = Ex.Field(ex, "y"); }
protected override LExpression GetExpressionTreeIfPossible( LExpression contextExpression, LExpression evalContext) { // TODO: odczyt const-ów! jak to zrobiæ! bo nie chc¹ siê emitowaæ! kurwa! co za gówno! // TODO: czy lock jest potrzebny? tutaj? chyba nie? // TODO: czy czasami nie bêdzie tak, ¿e kompilacja ZAWSZE bêdzie w locku??? lock (this) { IValueAccessor acc = null; var name = getText(); var finalContextExpression = contextExpression; var contextExpressionType = contextExpression.Type; if (contextExpressionType == typeof(Type) && contextExpression.NodeType == ExpressionType.Constant) { // System.Type or type that it represents (e.g. Int32) contextExpressionType = (Type)((ConstantExpression)contextExpression).Value; finalContextExpression = null; // try inner type (e.g. Int32) acc = GetPropertyOrFieldAccessor(contextExpressionType, name, BINDING_FLAGS); if (acc == null) { // not found - going back to System.Type contextExpressionType = contextExpression.Type; finalContextExpression = contextExpression; } } if (acc == null) { acc = GetPropertyOrFieldAccessor(contextExpressionType, name, BINDING_FLAGS); } var propertyAcc = acc as PropertyValueAccessor; if (propertyAcc != null) { return(LExpression.Property( finalContextExpression, (PropertyInfo)propertyAcc.MemberInfo)); } var fieldAcc = acc as FieldValueAccessor; if (fieldAcc != null) { if (fieldAcc.FieldInfo.IsStatic && fieldAcc.FieldInfo.IsLiteral) { // const field - have to JIT a value! object fieldValue = fieldAcc.Get(null); return(LExpression.Constant( fieldValue, fieldAcc.FieldInfo.FieldType)); } return(LExpression.Field( finalContextExpression, (FieldInfo)fieldAcc.MemberInfo)); } // final call - Type! { var type = TypeResolutionUtils.ResolveType(name); if (type != null) { // if (!type.IsValueType) // { return(LExpression.Constant(type, typeof(Type))); // } // else // { // return // LExpression.Convert( // LExpression.Constant(type, typeof(Type)), // typeof(object)); // } } } return(null); } }
public override SysExpr ToExpression() => SysExpr.Field(Expression.ToExpression(), FieldInfo);
private static CloneDelegate <T> GetObjectCloner <T>(Type type, CloneContext context) { Delegate result; var cache = context.Cache; var key = new CacheKey(typeof(T), type); if (!cache.TryGetValue(key, out result)) { var statements = new List <LinqExpression>(); var param = LinqExpression.Parameter(typeof(T).MakeByRefType(), "input"); var output = LinqExpression.Parameter(typeof(T).MakeByRefType(), "output"); var contextParam = LinqExpression.Parameter(typeof(CloneContext), "context"); ParameterExpression localCast; ParameterExpression localOutput; ParameterExpression localObj; bool isStruct = type.IsValueType && typeof(T) == type; bool isArray = type.IsArray; if (isStruct || isArray) { localCast = param; localOutput = output; localObj = null; } else { localObj = LinqExpression.Variable(typeof(object), "localObj"); localCast = LinqExpression.Variable(type, "localCast"); localOutput = LinqExpression.Variable(type, "localOut"); statements.Add(LinqExpression.Assign(localCast, LinqExpression.Convert(param, type))); if (context.IsSelfClone) { statements.Add(LinqExpression.Call(contextParam, MethodAdd, param, param)); statements.Add(LinqExpression.Assign(output, localCast)); } else { // NOTE: this can fail if there is no default constructor for type. // for example Dictionary<K,T>.ValueCollection, which is created when a access to members Keys or Values is performed on the dicitonary. statements.Add(LinqExpression.Assign(localOutput, LinqExpression.New(type))); statements.Add(LinqExpression.Assign(output, localOutput)); statements.Add(LinqExpression.Call(contextParam, MethodAdd, param, localOutput)); } } var fields = GetFields(type); // If we have a struct with primitive only if (isArray) { var genericCloneMethod = DeepcloneArray.GetGenericMethodDefinition(); genericCloneMethod = genericCloneMethod.MakeGenericMethod(new[] { type.GetElementType() }); statements.Add(LinqExpression.Call(genericCloneMethod, localCast, localOutput, contextParam)); } else if (isStruct && fields.All(field => IsPrimitive(field.FieldType))) { statements.Add(LinqExpression.Assign(localOutput, param)); } else { foreach (var field in fields) { if (field.IsInitOnly) { throw new InvalidOperationException(String.Format("Field [{0}] in [{1}] is readonly, which is not supported in DeepClone", field.Name, type)); } var t = field.FieldType; if (t.IsSubclassOf(typeof(Delegate))) { continue; } var value = LinqExpression.Field(localCast, field); LinqExpression cloneField = null; if (IsPrimitive(t)) { if (!context.IsSelfClone) { cloneField = LinqExpression.Assign(LinqExpression.Field(localOutput, field), value); } } else { MethodInfo genericCloneMethod; if (field.FieldType.IsArray) { genericCloneMethod = DeepcloneArray.GetGenericMethodDefinition(); genericCloneMethod = genericCloneMethod.MakeGenericMethod(new[] { field.FieldType.GetElementType() }); } else { genericCloneMethod = DeepcloneObject.GetGenericMethodDefinition(); genericCloneMethod = genericCloneMethod.MakeGenericMethod(new[] { field.FieldType }); } cloneField = LinqExpression.Call(genericCloneMethod, value, context.IsSelfClone ? value : LinqExpression.Field(localOutput, field), contextParam); } if (cloneField != null) { statements.Add(cloneField); } } } LinqExpression body; if (isStruct || isArray) { if (statements.Count == 0) { body = LinqExpression.Empty(); } else { body = LinqExpression.Block(statements); } } else { var innerBody = LinqExpression.Block(new[] { localCast, localOutput }, statements); body = LinqExpression.Block( new[] { localObj }, LinqExpression.IfThenElse( LinqExpression.Call(contextParam, MethodTryGetValue, param, localObj), LinqExpression.Assign(output, LinqExpression.Convert(localObj, typeof(T))), innerBody)); } var tempLambda = LinqExpression.Lambda <CloneDelegate <T> >(body, param, output, contextParam); result = tempLambda.Compile(); cache.Add(key, result); } return((CloneDelegate <T>)result); }
public static Ex dLookupSinDeg(TEx <double> angleDeg) => Ex.Field(dLookupCosSinDeg(angleDeg), "y");
/// <summary> /// Builds the childrens iterator. /// </summary> /// <param name="rootType">Type of the root.</param> /// <returns> /// A function that is able to process childrens from a node /// </returns> private static NodeProcessor BuildChildrensIterator(Type rootType) { var sourceParameter = LinqExpression.Parameter(typeof(Node), "source"); var explorerParameter = LinqExpression.Parameter(typeof(NodeProcessorContext).MakeByRefType(), "nodeProcessorContext"); var variableNodeProcessor = LinqExpression.Variable(typeof(NodeProcessor), "nodeProcessor"); var variableNodeListProcessor = LinqExpression.Variable(typeof(NodeListProcessor), "listProcessor"); var statements = new List <LinqExpression>(); // Cast source variable var castVar = LinqExpression.Variable(rootType, "cast"); var variables = new List <ParameterExpression> { castVar, variableNodeProcessor, variableNodeListProcessor }; statements.Add(LinqExpression.Assign(castVar, LinqExpression.Convert(sourceParameter, rootType))); statements.Add(LinqExpression.Assign(variableNodeProcessor, LinqExpression.Field(explorerParameter, nodeProcessorProperty))); statements.Add(LinqExpression.Assign(variableNodeListProcessor, LinqExpression.Field(explorerParameter, nodeListProcessorProperty))); // Get all types from most inherited var types = new List <Type>(); for (var type = rootType; type != null; type = type.GetTypeInfo().BaseType) { types.Add(type); } types.Reverse(); // Iterate on inherited types foreach (var type in types) { // Iterate on all properties in order to create the iterator. foreach (var sourceField in type.GetFields(BindingFlags.Public | BindingFlags.Instance | BindingFlags.NonPublic)) { // If the property is not read-writable or contains a visitor ignore attribute, skip it if (sourceField.GetCustomAttribute <VisitorIgnoreAttribute>(true) != null) { continue; } var propertyType = sourceField.FieldType; var interfaces = propertyType.GetTypeInfo().ImplementedInterfaces; // Get the property type and check if the property inherit from IList<> if (!typeof(StatementList).GetTypeInfo().IsAssignableFrom(propertyType.GetTypeInfo())) { foreach (var interfaceBase in interfaces) { if (interfaceBase.GetTypeInfo().IsGenericType&& interfaceBase.GetTypeInfo().GetGenericTypeDefinition() == typeof(IList <>)) { var parameterType = interfaceBase.GetTypeInfo().GenericTypeArguments[0]; if (typeof(Node).GetTypeInfo().IsAssignableFrom(parameterType.GetTypeInfo())) { statements.Add( LinqExpression.Invoke(variableNodeListProcessor, LinqExpression.Field(castVar, sourceField), explorerParameter)); } break; } } } if (typeof(Node).GetTypeInfo().IsAssignableFrom(propertyType.GetTypeInfo())) { statements.Add( LinqExpression.Assign( LinqExpression.Field(castVar, sourceField), LinqExpression.Convert(LinqExpression.Invoke(variableNodeProcessor, LinqExpression.Field(castVar, sourceField), explorerParameter), propertyType))); } } } // Return source parameter statements.Add(sourceParameter); // Lambda body var block = LinqExpression.Block(variables, statements); // Create lambda and return a compiled version var lambda = LinqExpression.Lambda <NodeProcessor>(block, sourceParameter, explorerParameter); return(lambda.Compile()); }
public static Ex dLookupSinRad(TEx <double> angleRad) => Ex.Field(dLookupCosSinRad(angleRad), "y");