public override string TranslateType(Pastel.Nodes.PType type)
{
switch (type.RootValue)
{
case "int":
case "char":
case "bool":
case "double":
case "string":
case "object":
case "void":
return(type.RootValue);
case "List":
return("List<" + this.TranslateType(type.Generics[0]) + ">");
case "Dictionary":
return("Dictionary<" + this.TranslateType(type.Generics[0]) + ", " + this.TranslateType(type.Generics[1]) + ">");
case "Array":
return(this.TranslateType(type.Generics[0]) + "[]");
default:
if (type.Generics.Length > 0)
{
throw new NotImplementedException();
}
return(type.RootValue);
}
}
internal override Expression ResolveType(VariableScope varScope, PastelCompiler compiler)
{
PType type = varScope.GetTypeOfVariable(this.Name);
this.ResolvedType = type;
if (type == null)
{
throw new ParserException(
this.FirstToken,
"The " + (this.IsFunctionInvocation ? "function" : "variable") + " '" + this.Name + "' is not defined.");
}
return(this);
}
internal bool IsIdentical(PastelCompiler compiler, PType other)
{
if (!this.isTypeFinalized)
{
this.FinalizeType(compiler);
}
if (!other.isTypeFinalized)
{
other.FinalizeType(compiler);
}
if (this.Category != other.Category)
{
return(false);
}
if (this.Generics.Length != other.Generics.Length)
{
return(false);
}
if (this.IsStructOrClass)
{
return(this.structReference == other.structReference || this.classReference == other.classReference);
}
if (this.RootValue != other.RootValue)
{
string thisRoot = this.RootValue;
string thatRoot = other.RootValue;
if (thisRoot == "number" && (thatRoot == "double" || thatRoot == "int"))
{
return(true);
}
if (thatRoot == "number" && (thisRoot == "double" || thisRoot == "int"))
{
return(true);
}
return(false);
}
for (int i = this.Generics.Length - 1; i >= 0; --i)
{
if (!this.Generics[i].IsIdentical(compiler, other.Generics[i]))
{
return(false);
}
}
return(true);
}
public StructDefinition(Token structToken, Token name, IList <PType> argTypes, IList <Token> argNames)
{
this.FirstToken = structToken;
this.NameToken = name;
this.ArgTypes = argTypes.ToArray();
this.ArgNames = argNames.ToArray();
this.ArgIndexByName = new Dictionary <string, int>();
for (int i = this.ArgNames.Length - 1; i >= 0; --i)
{
string argName = this.ArgNames[i].Value;
this.ArgIndexByName[argName] = i;
}
this.Type = new PType(this.FirstToken, name.Value);
}
public FunctionDefinition(
Token nameToken,
PType returnType,
IList <PType> argTypes,
IList <Token> argNames,
IList <Executable> code)
{
this.FirstToken = returnType.FirstToken;
this.NameToken = nameToken;
this.ReturnType = returnType;
this.ArgTypes = argTypes.ToArray();
this.ArgNames = argNames.ToArray();
this.Code = code.ToArray();
}
private void VerifyArgTypes(PType[] expectedTypes, PastelCompiler compiler)
{
if (expectedTypes.Length != this.Args.Length)
{
throw new ParserException(this.OpenParenToken, "This function invocation has the wrong number of parameters. Expected " + expectedTypes.Length + " but found " + this.Args.Length + ".");
}
for (int i = 0; i < this.Args.Length; ++i)
{
if (!PType.CheckAssignment(compiler, expectedTypes[i], this.Args[i].ResolvedType))
{
throw new ParserException(this.Args[i].FirstToken, "Wrong function arg type. Cannot convert a " + this.Args[i].ResolvedType + " to a " + expectedTypes[i]);
}
}
}
internal override Expression ResolveType(VariableScope varScope, PastelCompiler compiler)
{
for (int i = 0; i < this.Args.Length; ++i)
{
this.Args[i] = this.Args[i].ResolveType(varScope, compiler);
}
this.Root = this.Root.ResolveType(varScope, compiler);
if (this.Root is FunctionReference)
{
FunctionDefinition functionDefinition = ((FunctionReference)this.Root).Function;
this.VerifyArgTypes(functionDefinition.ArgTypes, compiler);
this.ResolvedType = functionDefinition.ReturnType;
return(this);
}
else if (this.Root is CoreFunctionReference)
{
CoreFunctionReference nfr = (CoreFunctionReference)this.Root;
CoreFunctionInvocation nfi;
if (nfr.Context == null)
{
nfi = new CoreFunctionInvocation(this.FirstToken, nfr.CoreFunctionId, this.Args, this.Owner);
}
else
{
nfi = new CoreFunctionInvocation(this.FirstToken, nfr.CoreFunctionId, nfr.Context, this.Args, this.Owner);
}
return(nfi.ResolveType(varScope, compiler));
}
else if (this.Root is ExtensibleFunctionReference)
{
return(new ExtensibleFunctionInvocation(this.FirstToken, (ExtensibleFunctionReference)this.Root, this.Args).ResolveType(varScope, compiler));
}
else if (this.Root is ConstructorReference)
{
PType typeToConstruct = ((ConstructorReference)this.Root).TypeToConstruct;
typeToConstruct.FinalizeType(compiler);
return(new ConstructorInvocation(this.FirstToken, typeToConstruct, this.Args, this.Owner));
}
else if (this.Root.ResolvedType.RootValue == "Func")
{
return(new FunctionPointerInvocation(compiler, this.FirstToken, this.Root, this.Args));
}
throw new ParserException(this.OpenParenToken, "This expression cannot be invoked like a function.");
}
public FunctionDefinition(
Token nameToken,
PType returnType,
IList <PType> argTypes,
IList <Token> argNames,
PastelContext context,
ClassDefinition nullableClassOwner) // null if not associated with a class
{
this.Context = context;
this.FirstToken = returnType.FirstToken;
this.NameToken = nameToken;
this.ReturnType = returnType;
this.ArgTypes = argTypes.ToArray();
this.ArgNames = argNames.ToArray();
this.ClassDef = nullableClassOwner;
}
internal override void ResolveTypes(VariableScope varScope, PastelCompiler compiler)
{
if (this.Expression != null)
{
this.Expression = this.Expression.ResolveType(varScope, compiler);
if (!PType.CheckReturnType(varScope.RootFunctionDefinition.ReturnType, this.Expression.ResolvedType))
{
throw new ParserException(this.Expression.FirstToken, "This expression is not the expected return type of this function.");
}
}
else
{
if (!this.Expression.ResolvedType.IsIdentical(PType.VOID))
{
throw new ParserException(this.FirstToken, "Must return a value in this function.");
}
}
}
internal override Expression ResolveType(VariableScope varScope, PastelCompiler compiler)
{
this.Root = this.Root.ResolveType(varScope, compiler);
this.Index = this.Index.ResolveType(varScope, compiler);
PType rootType = this.Root.ResolvedType;
PType indexType = this.Index.ResolvedType;
bool badIndex = false;
if (rootType.RootValue == "List" || rootType.RootValue == "Array")
{
badIndex = !indexType.IsIdentical(PType.INT);
this.ResolvedType = rootType.Generics[0];
}
else if (rootType.RootValue == "Dictionary")
{
badIndex = !indexType.IsIdentical(rootType.Generics[0]);
this.ResolvedType = rootType.Generics[1];
}
else if (rootType.RootValue == "string")
{
badIndex = !indexType.IsIdentical(PType.INT);
this.ResolvedType = PType.CHAR;
if (this.Root is InlineConstant && this.Index is InlineConstant)
{
string c = ((string)((InlineConstant)this.Root).Value)[(int)((InlineConstant)this.Index).Value].ToString();
InlineConstant newValue = new InlineConstant(PType.CHAR, this.FirstToken, c);
newValue.ResolveType(varScope, compiler);
return(newValue);
}
}
else
{
badIndex = true;
}
if (badIndex)
{
throw new ParserException(this.BracketToken, "Cannot index into a " + rootType + " with a " + indexType + ".");
}
return(this);
}
public override string TranslateType(Pastel.Nodes.PType type)
{
switch (type.RootValue)
{
case "int": return("int");
case "string": return("int*");
case "bool": return("int");
case "double": return("double");
case "object": return("void*");
case "char": return("int");
case "List": return("List*");
case "Array": return(this.TranslateType(type.Generics[0]) + "*");
case "Dictionary":
string keyType = type.Generics[0].RootValue;
switch (keyType)
{
case "int":
case "string":
return("Dictionary*");
default:
throw new NotImplementedException();
}
default: break;
}
char firstChar = type.RootValue[0];
if (firstChar >= 'A' && firstChar <= 'Z')
{
return(type.RootValue + "*");
}
throw new NotImplementedException();
}
internal override void ResolveTypes(VariableScope varScope, PastelCompiler compiler)
{
this.Value = this.Value.ResolveType(varScope, compiler);
this.Target = this.Target.ResolveType(varScope, compiler);
if (!PType.CheckAssignment(this.Target.ResolvedType, this.Value.ResolvedType))
{
if (this.OpToken.Value != "=" &&
this.Target.ResolvedType.IsIdentical(PType.DOUBLE) &&
this.Value.ResolvedType.IsIdentical(PType.INT))
{
// You can apply incremental ops such as += with an int to a float and that is fine without explicit conversion in any platform.
}
else
{
throw new ParserException(this.OpToken, "Cannot assign a " + this.Value.ResolvedType + " to a " + this.Target.ResolvedType);
}
}
}
private bool IsParentOf(PType moreSpecificTypeOrSame)
{
if (moreSpecificTypeOrSame == this)
{
return(true);
}
if (this.RootValue == "object")
{
return(true);
}
if (this.Generics.Length == 0)
{
// why no treatment of int as a subtype of double? because there needs to be an explicit type conversion
// for languages that aren't strongly typed and won't auto-convert.
return(this.RootValue == moreSpecificTypeOrSame.RootValue);
}
// All that's left are Arrays, Lists, and Dictionaries, which must match exactly.
return(this.IsIdentical(moreSpecificTypeOrSame));
}
internal bool IsIdenticalOrChildOf(PastelCompiler compiler, PType other)
{
if (this.IsIdentical(compiler, other))
{
return(true);
}
// only structs or classes should be here if this is to return true. If not, then it's a no.
if (!this.IsStructOrClass || !other.IsStructOrClass)
{
return(false);
}
if (this.IsStruct != other.IsStruct)
{
return(false);
}
if (this.IsStruct)
{
if (this.StructDef == null || other.StructDef == null)
{
throw new System.Exception("This check cannot occur without resolving struct information for PTypes.");
}
StructDefinition walker = this.StructDef;
StructDefinition target = other.StructDef;
while (walker != null)
{
if (walker == target)
{
return(true);
}
walker = walker.Parent;
}
}
if (this.IsClass)
{
throw new System.NotImplementedException();
}
return(false);
}
// Note that this class is instantiated in the ResolveType phase.
public FunctionPointerInvocation(PastelCompiler compiler, Token firstToken, Expression root, IList <Expression> Args)
: base(firstToken, root.Owner)
{
this.Root = root;
this.Args = Args.ToArray();
this.ResolvedType = this.Root.ResolvedType.Generics[0];
if (this.Root.ResolvedType.Generics.Length - 1 != this.Args.Length)
{
throw new ParserException(this.Root.FirstToken, "This function has the incorrect number of arguments.");
}
for (int i = 0; i < this.Args.Length; ++i)
{
PType expectedArgType = this.Root.ResolvedType.Generics[i + 1];
PType actualArgType = this.Args[i].ResolvedType;
if (!actualArgType.IsIdentical(compiler, expectedArgType))
{
throw new ParserException(this.Args[i].FirstToken, "Incorrect argument type. Expected " + expectedArgType + " but found " + actualArgType + ".");
}
}
}
internal override Expression ResolveType(VariableScope varScope, PastelCompiler compiler)
{
ClassDefinition cd;
if (this.Owner is FunctionDefinition funcDef)
{
cd = funcDef.ClassDef;
}
else if (this.Owner is FieldDefinition fieldDef)
{
cd = fieldDef.ClassDef;
}
else if (this.Owner is ConstructorDefinition constructorDef)
{
cd = constructorDef.ClassDef;
}
else
{
throw new ParserException(this.FirstToken, "Cannot use the expression 'this' outside of classes.");
}
this.ResolvedType = PType.ForClass(this.FirstToken, cd);
return(this);
}
internal override Expression ResolveType(VariableScope varScope, PastelCompiler compiler)
{
this.Root = this.Root.ResolveType(varScope, compiler);
this.Index = this.Index.ResolveType(varScope, compiler);
PType rootType = this.Root.ResolvedType;
PType indexType = this.Index.ResolvedType;
bool badIndex = false;
if (rootType.RootValue == "List" || rootType.RootValue == "Array")
{
badIndex = !indexType.IsIdentical(PType.INT);
this.ResolvedType = rootType.Generics[0];
}
else if (rootType.RootValue == "Dictionary")
{
badIndex = !indexType.IsIdentical(rootType.Generics[0]);
this.ResolvedType = rootType.Generics[1];
}
else if (rootType.RootValue == "string")
{
badIndex = !indexType.IsIdentical(PType.INT);
this.ResolvedType = PType.CHAR;
}
else
{
badIndex = true;
}
if (badIndex)
{
throw new ParserException(this.BracketToken, "Cannot index into a " + rootType + " with a " + indexType + ".");
}
return(this);
}
internal static bool CheckReturnType(PastelCompiler compiler, PType returnType, PType value)
{
// This is an assert, not a user-facing exception. Null should never appear here.
if (value == null)
{
throw new ParserException(returnType.FirstToken, "This should not happen.");
}
if (value.IsIdenticalOrChildOf(compiler, returnType))
{
return(true);
}
if (returnType.Category == TypeCategory.OBJECT)
{
return(true);
}
if (returnType.Category == TypeCategory.VOID)
{
return(false);
}
if (value.Category == TypeCategory.NULL)
{
if (returnType.Category == TypeCategory.PRIMITIVE && returnType.TypeName == "string")
{
return(true);
}
if (returnType.Generics.Length > 0)
{
return(true);
}
if (returnType.IsStructOrClass)
{
return(true);
}
}
return(false);
}
internal override Expression ResolveType(VariableScope varScope, PastelCompiler compiler)
{
// The args were already resolved.
// This ensures that they match the native function definition
PType[] expectedTypes = NativeFunctionUtil.GetNativeFunctionArgTypes(this.Function);
bool[] isArgRepeated = NativeFunctionUtil.GetNativeFunctionIsArgTypeRepeated(this.Function);
switch (this.Function)
{
case NativeFunction.FORCE_PARENS:
if (this.Args.Length != 1)
{
throw new ParserException(this.FirstToken, "Expected 1 arg.");
}
return(new ForcedParenthesis(this.FirstToken, this.Args[0]));
case NativeFunction.IS_DEBUG:
#if DEBUG
bool value = true;
#else
bool value = false;
#endif
return(new InlineConstant(PType.BOOL, this.FirstToken, value));
}
Dictionary <string, PType> templateLookup = new Dictionary <string, PType>();
int verificationLength = expectedTypes.Length;
if (verificationLength > 0 && isArgRepeated[isArgRepeated.Length - 1])
{
verificationLength--;
}
for (int i = 0; i < verificationLength; ++i)
{
if (!PType.CheckAssignmentWithTemplateOutput(expectedTypes[i], this.Args[i].ResolvedType, templateLookup))
{
throw new ParserException(this.Args[i].FirstToken, "Incorrect type. Expected " + expectedTypes[i] + " but found " + this.Args[i].ResolvedType + ".");
}
}
if (expectedTypes.Length < this.Args.Length)
{
if (isArgRepeated[isArgRepeated.Length - 1])
{
PType expectedType = expectedTypes[expectedTypes.Length - 1];
for (int i = expectedTypes.Length; i < this.Args.Length; ++i)
{
if (!PType.CheckAssignment(expectedType, this.Args[i].ResolvedType))
{
throw new ParserException(this.Args[i].FirstToken, "Incorrect type. Expected " + expectedTypes[i] + " but found " + this.Args[i].ResolvedType + ".");
}
}
}
else
{
throw new ParserException(this.FirstToken, "Too many arguments.");
}
}
PType returnType = NativeFunctionUtil.GetNativeFunctionReturnType(this.Function);
if (returnType.HasTemplates)
{
returnType = returnType.ResolveTemplates(templateLookup);
}
this.ResolvedType = returnType;
return(this);
}
private NativeFunction DetermineNativeFunctionId(PType rootType, string field)
{
switch (rootType.RootValue)
{
case "string":
switch (field)
{
case "CharCodeAt": return(NativeFunction.STRING_CHAR_CODE_AT);
case "Contains": return(NativeFunction.STRING_CONTAINS);
case "EndsWith": return(NativeFunction.STRING_ENDS_WITH);
case "IndexOf": return(NativeFunction.STRING_INDEX_OF);
case "Replace": return(NativeFunction.STRING_REPLACE);
case "Reverse": return(NativeFunction.STRING_REVERSE);
case "Size": return(NativeFunction.STRING_LENGTH);
case "Split": return(NativeFunction.STRING_SPLIT);
case "StartsWith": return(NativeFunction.STRING_STARTS_WITH);
case "SubString": return(NativeFunction.STRING_SUBSTRING);
case "SubStringIsEqualTo": return(NativeFunction.STRING_SUBSTRING_IS_EQUAL_TO);
case "ToLower": return(NativeFunction.STRING_TO_LOWER);
case "ToUpper": return(NativeFunction.STRING_TO_UPPER);
case "Trim": return(NativeFunction.STRING_TRIM);
case "TrimEnd": return(NativeFunction.STRING_TRIM_END);
case "TrimStart": return(NativeFunction.STRING_TRIM_START);
default: throw new ParserException(this.FieldName, "Unresolved string method: " + field);
}
case "Array":
switch (field)
{
case "Join": return(NativeFunction.ARRAY_JOIN);
case "Size": return(NativeFunction.ARRAY_LENGTH);
default: throw new ParserException(this.FieldName, "Unresolved Array method: " + field);
}
case "List":
switch (field)
{
case "Add": return(NativeFunction.LIST_ADD);
case "Clear": return(NativeFunction.LIST_CLEAR);
case "Insert": return(NativeFunction.LIST_INSERT);
case "Join":
string memberType = rootType.Generics[0].RootValue;
switch (memberType)
{
case "string": return(NativeFunction.LIST_JOIN_STRINGS);
case "char": return(NativeFunction.LIST_JOIN_CHARS);
default: throw new ParserException(this.FieldName, "Unresolved List<" + memberType + "> method: " + field);
}
case "Pop": return(NativeFunction.LIST_POP);
case "RemoveAt": return(NativeFunction.LIST_REMOVE_AT);
case "Reverse": return(NativeFunction.LIST_REVERSE);
case "Shuffle": return(NativeFunction.LIST_SHUFFLE);
case "Size": return(NativeFunction.LIST_SIZE);
default: throw new ParserException(this.FieldName, "Unresolved List method: " + field);
}
case "Dictionary":
switch (field)
{
case "Contains": return(NativeFunction.DICTIONARY_CONTAINS_KEY);
case "Keys": return(NativeFunction.DICTIONARY_KEYS);
case "Remove": return(NativeFunction.DICTIONARY_REMOVE);
case "Size": return(NativeFunction.DICTIONARY_SIZE);
case "Values": return(NativeFunction.DICTIONARY_VALUES);
default: throw new ParserException(this.FieldName, "Unresolved Dictionary method: " + field);
}
default:
throw new ParserException(this.FieldName, "Unresolved field.");
}
}
public ConstructorReference(Token newToken, PType type, ICompilationEntity owner) : base(newToken, owner)
{
this.TypeToConstruct = type;
}
// when a templated type coincides with an actual value, add that template key to the lookup output param.
public static bool CheckAssignmentWithTemplateOutput(PType templatedType, PType actualValue, Dictionary <string, PType> output)
{
if (templatedType.RootValue == "object")
{
return(true);
}
// Most cases, nothing to do
if (templatedType.IsIdentical(actualValue))
{
return(true);
}
if (templatedType.RootValue.Length == 1)
{
if (output.ContainsKey(templatedType.RootValue))
{
PType requiredType = output[templatedType.RootValue];
// if it's already encountered it better match the existing value
if (actualValue.IsIdentical(requiredType))
{
return(true);
}
// It's also possible that this is null, in which case the type must be nullable.
if (actualValue.RootValue == "null" && requiredType.IsNullable)
{
return(true);
}
return(false);
}
output[templatedType.RootValue] = actualValue;
return(true);
}
if (templatedType.Generics.Length != actualValue.Generics.Length)
{
// completely different. don't even try to match templates
return(false);
}
if (templatedType.RootValue != actualValue.RootValue)
{
if (templatedType.RootValue.Length == 1)
{
if (output.ContainsKey(templatedType.RootValue))
{
// if it's already encountered it better match the existing value
if (actualValue.IsIdentical(output[templatedType.RootValue]))
{
// yup, that's okay
}
else
{
return(false);
}
}
else
{
// first time this type was encountered.
output[templatedType.RootValue] = actualValue;
}
}
else
{
// different type
return(false);
}
}
for (int i = 0; i < templatedType.Generics.Length; ++i)
{
if (!CheckAssignmentWithTemplateOutput(templatedType.Generics[i], actualValue.Generics[i], output))
{
return(false);
}
}
return(true);
}
public ConstructorReference(Token newToken, PType type) : base(newToken)
{
this.TypeToConstruct = type;
}
private static PType ParseImpl(TokenStream tokens)
{
Token token = tokens.Pop();
switch (token.Value)
{
case "int":
case "char":
case "double":
case "bool":
case "void":
case "string":
case "object":
return(new PType(token, token.Value));
default:
if (!PastelParser.IsValidName(token.Value))
{
return(null);
}
break;
}
int tokenIndex = tokens.SnapshotState();
bool isError = false;
if (tokens.PopIfPresent("<"))
{
List <PType> generics = new List <PType>();
while (!tokens.PopIfPresent(">"))
{
if (generics.Count > 0)
{
if (!tokens.PopIfPresent(","))
{
isError = true;
break;
}
}
PType generic = ParseImpl(tokens);
if (generic == null)
{
return(null);
}
generics.Add(generic);
}
if (!isError)
{
return(new PType(token, token.Value, generics));
}
// If there was an error while parsing generics, then this may still be a valid type.
tokens.RevertState(tokenIndex);
return(new PType(token, token.Value));
}
else
{
return(new PType(token, token.Value));
}
}
internal override Expression ResolveType(VariableScope varScope, PastelCompiler compiler)
{
for (int i = 0; i < this.Expressions.Length; ++i)
{
this.Expressions[i] = this.Expressions[i].ResolveType(varScope, compiler);
}
this.ResolvedType = this.Expressions[0].ResolvedType;
for (int i = 0; i < this.Ops.Length; ++i)
{
PType nextType = this.Expressions[i + 1].ResolvedType;
string op = this.Ops[i].Value;
if (op == "==" || op == "!=")
{
if ((nextType.RootValue == this.ResolvedType.RootValue) ||
(nextType.RootValue == "null" && this.ResolvedType.IsNullable) ||
(nextType.IsNullable && this.ResolvedType.RootValue == "null") ||
(nextType.RootValue == "null" && this.ResolvedType.RootValue == "null"))
{
this.ResolvedType = PType.BOOL;
continue;
}
}
string lookup = this.ResolvedType.RootValue + this.Ops[i].Value + nextType.RootValue;
switch (lookup)
{
case "int+int":
case "int-int":
case "int*int":
case "int%int":
case "int&int":
case "int|int":
case "int^int":
case "int<<int":
case "int>>int":
this.ResolvedType = PType.INT;
break;
case "int+double":
case "double+int":
case "double+double":
case "int-double":
case "double-int":
case "double-double":
case "int*double":
case "double*int":
case "double*double":
case "double%int":
case "int%double":
case "double%double":
this.ResolvedType = PType.DOUBLE;
break;
case "int>int":
case "int<int":
case "int>=int":
case "int<=int":
case "double<int":
case "double>int":
case "double<=int":
case "double>=int":
case "int<double":
case "int>double":
case "int<=double":
case "int>=double":
case "double<double":
case "double>double":
case "double<=double":
case "double>=double":
case "int==int":
case "double==double":
case "int==double":
case "double==int":
case "int!=int":
case "double!=double":
case "int!=double":
case "double!=int":
case "bool&&bool":
case "bool||bool":
case "char>char":
case "char<char":
case "char>=char":
case "char<=char":
this.ResolvedType = PType.BOOL;
break;
case "int/int":
case "int/double":
case "double/int":
case "double/double":
throw new ParserException(this.Ops[i], "Due to varying platform behavior of / use Core.IntegerDivision(numerator, denominator) or Core.FloatDivision(numerator, denominator)");
default:
throw new ParserException(this.Ops[i], "The operator '" + this.Ops[i].Value + "' is not defined for types: " + this.ResolvedType + " and " + nextType + ".");
}
}
return(this);
}
public override string TranslateType(Pastel.Nodes.PType type)
{
return(this.ParentPlatform.TranslateType(type));
}
public CastExpression(Token openParenToken, PType type, Expression expression) : base(openParenToken)
{
this.Type = type;
this.Expression = expression;
}
public ConstructorInvocation(Token firstToken, PType type, IList <Expression> args) : base(firstToken)
{
this.Type = type;
this.Args = args.ToArray();
this.ResolvedType = type;
}
public InlineConstant(PType type, Token firstToken, object value) : base(firstToken)
{
this.Type = type;
this.ResolvedType = type;
this.Value = value;
}
public InlineConstant(PType type, Token firstToken, object value, ICompilationEntity owner) : base(firstToken, owner)
{
this.Type = type;
this.ResolvedType = type;
this.Value = value;
}
