public ProcessedProperty(PropertyInfo property, Processor processor, ProcessedType declaringType) : base(processor, declaringType)
{
Property = property;
getMethod = new CachedValue <ProcessedMethod> (() => {
var getter = Property.GetGetMethod();
if (getter != null)
{
return(new ProcessedMethod(getter, Processor, declaringType)
{
NameOverride = GetterName, IsPropertyImplementation = true
});
}
return(null);
});
setMethod = new CachedValue <ProcessedMethod> (() => {
var setter = Property.GetSetMethod();
if (setter != null)
{
return(new ProcessedMethod(setter, Processor, declaringType)
{
NameOverride = SetterName, IsPropertyImplementation = true
});
}
return(null);
});
}
bool AddDecimalSupport(Type t)
{
if (system_decimal != null)
{
return(true);
}
var corlib = GetMscorlib(t);
system_decimal = new ProcessedType(t)
{
Assembly = corlib,
// this is tracked because the linker (if enabled) needs to be aware of the requirement
// but we do not want any code to be generated (it's referenced only from native/glue code)
IsNativeReference = true,
Methods = new List <ProcessedMethod> (),
};
// we don't want to being everything from System.Decimal, but only the bits the support code can call
var string_type = corlib.Assembly.GetType("System.String");
var iformatprovider_type = corlib.Assembly.GetType("System.IFormatProvider");
var parse = t.GetMethod("Parse", new Type [] { string_type, iformatprovider_type });
system_decimal.Methods.Add(new ProcessedMethod(parse, this));
var tostring = t.GetMethod("ToString", new Type [] { iformatprovider_type });
system_decimal.Methods.Add(new ProcessedMethod(tostring, this));
AddExtraType(system_decimal);
return(true);
}
public ProcessedMethod(MethodInfo method, Processor processor, ProcessedType declaringType) : base(processor, declaringType)
{
Method = method;
MethodType = MethodType.Normal;
Parameters = method.GetParameters();
FirstDefaultParameter = -1;
}
Dictionary <string, ProcessedMemberBase> GetRegistrationForType(ProcessedType t)
{
Dictionary <string, ProcessedMemberBase> data;
if (MappedTypes.TryGetValue(t, out data))
{
return(data);
}
return(null);
}
protected IEnumerable <ProcessedFieldInfo> GetFields(ProcessedType t)
{
foreach (var fi in t.Type.GetFields(BindingFlags.Public | BindingFlags.Instance | BindingFlags.Static | BindingFlags.DeclaredOnly))
{
if (!fi.IsPublic)
{
continue;
}
var ft = fi.FieldType;
if (!IsSupported(ft))
{
Delayed.Add(ErrorHelper.CreateWarning(1050, $"Field `{fi}` is not generated because of field type `{ft}` is not supported."));
continue;
}
yield return(new ProcessedFieldInfo(fi, this, t));
}
}
IEnumerable <ProcessedMethod> AddDefaultValuesWrappers(MethodInfo mi, ProcessedType containingType)
{
// parameters with default values must be at the end and there can be many of them
var parameters = mi.GetParameters();
for (int i = parameters.Length - 1; i >= 0; i--)
{
if (!parameters [i].HasDefaultValue)
{
continue;
}
var pm = new ProcessedMethod(mi, this, containingType)
{
MethodType = MethodType.DefaultValueWrapper,
FirstDefaultParameter = i,
};
yield return(pm);
}
}
bool AddDateTimeSupport(Type t)
{
if (system_datetime != null)
{
return(true);
}
var corlib = GetMscorlib(t);
system_datetime = new ProcessedType(t)
{
Assembly = corlib,
// this is tracked because the linker (if enabled) needs to be aware of the requirement
// but we do not want any code to be generated (it's referenced only from native/glue code)
IsNativeReference = true,
Methods = new List <ProcessedMethod> (),
Properties = new List <ProcessedProperty> (),
Constructors = new List <ProcessedConstructor> (),
};
var ticks = t.GetProperty("Ticks");
system_datetime.Properties.Add(new ProcessedProperty(ticks, this, system_datetime));
var kind = t.GetProperty("Kind");
system_datetime.Properties.Add(new ProcessedProperty(kind, this, system_datetime));
var dtk = corlib.Assembly.GetType("System.DateTimeKind");
var longT = corlib.Assembly.GetType("System.Int64");
var ctorLongKind = t.GetConstructor(new Type [] { longT, dtk });
system_datetime.Constructors.Add(new ProcessedConstructor(ctorLongKind, this, system_datetime));
var toUniversalTime = t.GetMethod("ToUniversalTime");
system_datetime.Methods.Add(new ProcessedMethod(toUniversalTime, this, system_datetime));
AddExtraType(system_datetime);
return(true);
}
protected IEnumerable <ProcessedConstructor> GetConstructors(ProcessedType processedType)
{
Type t = processedType.Type;
foreach (var ctor in t.GetConstructors())
{
// .cctor not to be called directly by native code
if (ctor.IsStatic)
{
continue;
}
if (!ctor.IsPublic)
{
continue;
}
bool pcheck = true;
foreach (var p in ctor.GetParameters())
{
var pt = p.ParameterType;
if (!IsSupported(pt))
{
Delayed.Add(ErrorHelper.CreateWarning(1020, $"Constructor `{ctor}` is not generated because of parameter type `{pt}` is not supported."));
pcheck = false;
}
else if (p.HasDefaultValue)
{
members_with_default_values.Add(ctor);
}
}
if (!pcheck)
{
continue;
}
yield return(new ProcessedConstructor(ctor, this, processedType));
}
}
// post processing logic
IEnumerable <ProcessedConstructor> GetUnavailableParentCtors(ProcessedType pt)
{
var type = pt.Type;
var baseType = type.BaseType;
if ((baseType == null) || (baseType.Namespace == "System" && baseType.Name == "Object"))
{
return(Enumerable.Empty <ProcessedConstructor> ());
}
var baseProcessedType = GetProcessedType(baseType);
if ((baseProcessedType == null) || !baseProcessedType.HasConstructors)
{
return(Enumerable.Empty <ProcessedConstructor> ());
}
var typeCtors = pt.Constructors;
List <ProcessedConstructor> parentCtors = baseProcessedType.Constructors;
var finalList = new List <ProcessedConstructor> ();
foreach (var pctor in parentCtors)
{
var pctorParams = pctor.Parameters;
foreach (var ctor in typeCtors)
{
var ctorParams = ctor.Parameters;
if (pctorParams.Any(pc => !ctorParams.Any(p => p.Position == pc.Position && pc.ParameterType == p.ParameterType)))
{
finalList.Add(pctor);
break;
}
}
}
return(finalList);
}
public void Process(ProcessedAssembly a)
{
if (!a.UserCode)
{
return;
}
Logger.Log($"Processing Assembly: {a.Name}");
foreach (var t in GetTypes(a.Assembly))
{
var pt = new ProcessedType(t)
{
Assembly = a,
};
Types.Add(pt);
foreach (var nt in t.GetNestedTypes())
{
var pnt = new ProcessedType(nt)
{
Assembly = a
};
Types.Add(pnt);
}
}
// we can add new types while processing some (e.g. categories)
foreach (var type in Types)
{
typeQueue.Enqueue(type);
}
Types.Clear(); // reuse
while (typeQueue.Count > 0)
{
Process(typeQueue.Dequeue());
}
}
IEnumerable <ProcessedConstructor> AddDefaultValuesWrappers(ConstructorInfo ci, ProcessedType containingType)
{
// parameters with default values must be at the end and there can be many of them
var parameters = ci.GetParameters();
for (int i = parameters.Length - 1; i >= 0; i--)
{
if (!parameters [i].HasDefaultValue)
{
continue;
}
var pc = new ProcessedConstructor(ci, this, containingType)
{
ConstructorType = ConstructorType.DefaultValueWrapper,
FirstDefaultParameter = i,
};
yield return(pc);
}
}
public override void Process(ProcessedType pt)
{
Types.Add(pt);
if (pt.IsNativeReference)
{
return;
}
var t = pt.Type;
if (t.IsEnum)
{
return;
}
extension_type = t.HasCustomAttribute("System.Runtime.CompilerServices", "ExtensionAttribute");
implement_system_icomparable = t.Implements("System", "IComparable");
implement_system_icomparable_t = t.Implements("System", "IComparable`1");
implement_system_iequatable_t = t.Implements("System", "IEquatable`1");
var constructors = GetConstructors(t).OrderBy((arg) => arg.GetParameters().Length).ToList();
var processedConstructors = PostProcessConstructors(constructors).ToList();
pt.Constructors = processedConstructors;
var meths = GetMethods(pt).OrderBy((arg) => arg.Method.Name).ToList();
var processedMethods = PostProcessMethods(meths).ToList();
pt.Methods = processedMethods;
var props = new List <PropertyInfo> ();
var subscriptProps = new List <PropertyInfo> ();
foreach (var pi in GetProperties(t))
{
var getter = pi.GetGetMethod();
var setter = pi.GetSetMethod();
// setter only property are valid in .NET and we need to generate a method in ObjC (there's no writeonly properties)
if (getter == null)
{
continue;
}
// indexers are implemented as methods and object subscripting
if ((getter.GetParameters().Length > 0) || ((setter != null) && setter.GetParameters().Length > 1))
{
subscriptProps.Add(pi);
continue;
}
// we can do better than methods for the more common cases (readonly and readwrite)
processedMethods.RemoveAll(x => x.Method == getter);
processedMethods.RemoveAll(x => x.Method == setter);
props.Add(pi);
}
props = props.OrderBy((arg) => arg.Name).ToList();
var processedProperties = PostProcessProperties(props).ToList();
pt.Properties = processedProperties;
if (subscriptProps.Count > 0)
{
if (subscriptProps.Count > 1)
{
Delayed.Add(ErrorHelper.CreateWarning(1041, $"Indexed properties on {t.Name} is not generated because multiple indexed properties not supported."));
}
else
{
subscriptProperties.Add(t, PostProcessSubscriptProperties(subscriptProps).ToList());
}
}
// fields will need to be wrapped within properties
var f = GetFields(t).OrderBy((arg) => arg.Name).ToList();
var processedFields = PostProcessFields(f).ToList();
pt.Fields = processedFields;
}
protected IEnumerable <ProcessedMethod> GetMethods(ProcessedType type)
{
var t = type.Type;
foreach (var mi in t.GetMethods(BindingFlags.Public | BindingFlags.Instance | BindingFlags.Static | BindingFlags.DeclaredOnly))
{
if (!mi.IsPublic)
{
continue;
}
// handle special cases where we can implement something better, e.g. a better match
if (implement_system_icomparable_t)
{
// for X we prefer `IComparable<X>` to `IComparable` - since it will be exposed identically to ObjC
if (mi.Match("System.Int32", "CompareTo", t.FullName))
{
icomparable [t] = mi;
continue;
}
}
if (implement_system_icomparable && mi.Match("System.Int32", "CompareTo", "System.Object"))
{
// don't replace CompareTo(T) with CompareTo(Object)
if (!icomparable.ContainsKey(t))
{
icomparable.Add(t, mi);
}
continue;
}
if (mi.Match("System.Boolean", "Equals", "System.Object"))
{
yield return(new ProcessedMethod(mi, this)
{
DeclaringType = type,
MethodType = MethodType.NSObjectProcotolIsEqual,
});
continue;
}
if (implement_system_iequatable_t && mi.Match("System.Boolean", "Equals", new string [] { null }))
{
yield return(new ProcessedMethod(mi, this)
{
DeclaringType = type,
MethodType = MethodType.IEquatable,
});
continue;
}
if (mi.Match("System.Int32", "GetHashCode"))
{
yield return(new ProcessedMethod(mi, this)
{
DeclaringType = type,
MethodType = MethodType.NSObjectProcotolHash,
});
continue;
}
var rt = mi.ReturnType;
if (!IsSupported(rt))
{
Delayed.Add(ErrorHelper.CreateWarning(1030, $"Method `{mi}` is not generated because return type `{rt}` is not supported."));
continue;
}
bool pcheck = true;
foreach (var p in mi.GetParameters())
{
var pt = p.ParameterType;
if (!IsSupported(pt))
{
Delayed.Add(ErrorHelper.CreateWarning(1031, $"Method `{mi}` is not generated because of parameter type `{pt}` is not supported."));
pcheck = false;
}
else if (p.HasDefaultValue)
{
members_with_default_values.Add(mi);
}
}
if (!pcheck)
{
continue;
}
// handle extension methods
if (extension_type && mi.HasCustomAttribute("System.Runtime.CompilerServices", "ExtensionAttribute"))
{
var extended_type = mi.GetParameters() [0].ParameterType;
if (extended_type.IsPrimitive)
{
Delayed.Add(ErrorHelper.CreateWarning(1034, $"Extension method `{mi}` is not generated inside a category because they cannot be created on primitive type `{extended_type}`. A normal, static method was generated."));
}
else
{
Dictionary <Type, List <ProcessedMethod> > extensions;
if (!extensions_methods.TryGetValue(t, out extensions))
{
extensions = new Dictionary <Type, List <ProcessedMethod> > ();
extensions_methods.Add(t, extensions);
}
List <ProcessedMethod> extmethods;
if (!extensions.TryGetValue(extended_type, out extmethods))
{
extmethods = new List <ProcessedMethod> ();
extensions.Add(extended_type, extmethods);
}
extmethods.Add(new ProcessedMethod(mi, this));
continue;
}
}
yield return(new ProcessedMethod(mi, this));
}
}
protected void AddExtraType(ProcessedType pt)
{
typeQueue.Enqueue(pt);
// extra types are (most likely) outside the input list of assemblies
AddIfUnique(pt.Assembly);
}
public abstract void Process(ProcessedType pt);
public ProcessedConstructor(ConstructorInfo constructor, Processor processor, ProcessedType declaringType) : base(processor, declaringType)
{
Constructor = constructor;
Parameters = Constructor.GetParameters();
FirstDefaultParameter = -1;
}
public ProcessedFieldInfo(FieldInfo field, Processor processor, ProcessedType declaringType) : base(processor, declaringType)
{
Field = field;
TypeName = ObjC.NameGenerator.GetTypeName(Field.DeclaringType);
ObjCName = ObjC.NameGenerator.GetObjCName(Field.DeclaringType);
}
public ProcessedMemberWithParameters(Processor processor, ProcessedType declaringType) : base(processor, declaringType)
{
objCSignature = new CachedValue <string> (() => GetObjcSignature(true));
objCSelector = new CachedValue <string> (() => GetObjcSignature(false));
monoSignature = new CachedValue <string> (GetMonoSignature);
}
protected abstract void Generate(ProcessedType t);
bool IsSupported(Type t)
{
if (t.IsByRef)
{
return(IsSupported(t.GetElementType()));
}
if (t.IsArray)
{
return(IsSupported(t.GetElementType()));
}
if (unsupported.Contains(t))
{
return(false);
}
if (t.IsPointer)
{
Delayed.Add(ErrorHelper.CreateWarning(1010, $"Type `{t}` is not generated because `unsafe pointers` are not supported."));
unsupported.Add(t);
return(false);
}
if (t.IsGenericParameter || t.IsGenericType)
{
Delayed.Add(ErrorHelper.CreateWarning(1010, $"Type `{t}` is not generated because `generics` are not supported."));
unsupported.Add(t);
return(false);
}
switch (t.Namespace)
{
case "System":
switch (t.Name)
{
case "Object": // we cannot accept arbitrary NSObject (which we might not have bound) into mono
case "DBNull":
case "Exception":
case "Type":
Delayed.Add(ErrorHelper.CreateWarning(1011, $"Type `{t}` is not generated because it lacks a native counterpart."));
unsupported.Add(t);
return(false);
case "DateTime": // FIXME: NSDateTime
Delayed.Add(ErrorHelper.CreateWarning(1012, $"Type `{t}` is not generated because it lacks a marshaling code with a native counterpart."));
unsupported.Add(t);
return(false);
case "Decimal":
return(AddDecimalSupport(t));
case "TimeSpan":
if (system_timespan == null)
{
system_timespan = new ProcessedType(t)
{
Assembly = GetMscorlib(t),
};
AddExtraType(system_timespan);
}
return(true);
case "IFormatProvider":
if (system_iformatprovider == null)
{
system_iformatprovider = new ProcessedType(t)
{
Assembly = GetMscorlib(t),
};
AddExtraType(system_iformatprovider);
}
return(true);
}
break;
case "System.Globalization":
switch (t.Name)
{
case "TimeSpanStyles": // enum for TimeSpan support
if (system_globalization_timespanstyles == null)
{
system_globalization_timespanstyles = new ProcessedType(t)
{
Assembly = GetMscorlib(t),
};
AddExtraType(system_globalization_timespanstyles);
}
return(true);
}
break;
}
var base_type = t.BaseType;
return((base_type == null) || base_type.Is("System", "Object") ? true : IsSupported(base_type));
}
public ProcessedMemberBase(Processor processor, ProcessedType declaringType)
{
Processor = processor;
DeclaringType = declaringType;
}
