|
public Create ( Microsoft.CodeAnalysis.CSharp.Syntax.ClassDeclarationSyntax classDeclaration ) : |
||
| classDeclaration | Microsoft.CodeAnalysis.CSharp.Syntax.ClassDeclarationSyntax | |
| return | ||
public override void VisitSimpleBaseType(SimpleBaseTypeSyntax node)
{
var baseClassType = node.Type;
var baseClassSymbolInfo = _semantic.GetSymbolInfo(baseClassType);
if (baseClassSymbolInfo.Symbol != null)
{
var baseClassTypeSymbol = (ITypeSymbol)baseClassSymbolInfo.Symbol;
// skip interfaces as base types (since they do not have an implementation
// their methods will always be overridden by the mixins)
if (baseClassTypeSymbol.TypeKind == TypeKind.Interface)
return;
var classFactory = new ClassFactory(_semantic);
_subClass.BaseClass = classFactory.Create(baseClassTypeSymbol);
}
}
public override void VisitVariableDeclarator(VariableDeclaratorSyntax node)
{
// we take only the first declaration we found
// so if this field definition has more than one variable declaration,
// skip after the first one
if (MixinReference != null)
return;
var fieldSymbol = (IFieldSymbol)_semantic.GetDeclaredSymbol(node);
var typeOfField = fieldSymbol.Type;
// type could not be resolved => return here
if (typeOfField.TypeKind == TypeKind.Error)
return;
// also ignore native types (like int, string, double etc...)
// we identify them by checking if the types are declared in the runtime itself
// if yes, they are system types and we will skip them
var module = typeOfField.ContainingModule;
if (module != null && module.Name == CommonLanguageRuntimeLibrary)
return;
var classFactory = new ClassFactory(_semantic);
// create the mixin reference, that is the name of the field and the type the field references
MixinReference = new MixinReference(fieldSymbol.Name, classFactory.Create(typeOfField));
}