static string SingleTypeConstraintToString(TypeConstraint singleConstraint)
{
switch (singleConstraint)
{
case TypeConstraint.Boolean:
return("Boolean");
case TypeConstraint.Scalar:
return("Scalar");
case TypeConstraint.Vector2:
return("Vector2");
case TypeConstraint.Vector3:
return("Vector3");
case TypeConstraint.Vector4:
return("Vector4");
case TypeConstraint.Matrix3x2:
return("Matrix3x2");
case TypeConstraint.Matrix4x4:
return("Matrix4x4");
case TypeConstraint.Quaternion:
return("Quaternion");
case TypeConstraint.Color:
return("Color");
default:
throw new InvalidOperationException();
}
}
/// <summary> Mark a serializable field as an input port. You can access this through <see cref="GetInputPort(string)"/> </summary>
/// <param name="backingValue">Should we display the backing value for this port as an editor field? </param>
/// <param name="connectionType">Should we allow multiple connections? </param>
/// <param name="typeConstraint">Constrains which input connections can be made to this port </param>
/// <param name="instancePortList">If true, will display a reorderable list of inputs instead of a single port. Will automatically add and display values for lists and arrays </param>
public InputAttribute(ShowBackingValue backingValue = ShowBackingValue.Unconnected, ConnectionType connectionType = ConnectionType.Multiple, TypeConstraint typeConstraint = TypeConstraint.None, bool instancePortList = false)
{
this.backingValue = backingValue;
this.connectionType = connectionType;
this.instancePortList = instancePortList;
this.typeConstraint = typeConstraint;
}
public void EqualsToInt32(Type type, bool expected)
{
TypeConstraint
.EqualsTo(typeof(int))
.Check(type)
.Should().Be(expected);
}
/// <summary> Mark a serializable field as an output port. You can access this through <see cref="GetOutputPort(string)"/> </summary>
/// <param name="backingValue">Should we display the backing value for this port as an editor field? </param>
/// <param name="connectionType">Should we allow multiple connections? </param>
/// <param name="typeConstraint">Constrains which input connections can be made from this port </param>
/// <param name="dynamicPortList">If true, will display a reorderable list of outputs instead of a single port. Will automatically add and display values for lists and arrays </param>
public OutputAttribute(ShowBackingValue backingValue = ShowBackingValue.Never, ConnectionType connectionType = ConnectionType.Multiple, TypeConstraint typeConstraint = TypeConstraint.None, bool dynamicPortList = false)
{
this.backingValue = backingValue;
this.connectionType = connectionType;
this.dynamicPortList = dynamicPortList;
this.typeConstraint = typeConstraint;
}
/// <summary> Add a dynamic, serialized port to this node. </summary>
/// <seealso cref="AddDynamicInput"/>
/// <seealso cref="AddDynamicOutput"/>
private NodePort AddDynamicPort(Type type, NodePort.IO direction,
ConnectionType connectionType = ConnectionType.Multiple,
TypeConstraint typeConstraint = TypeConstraint.None,
string fieldName = null)
{
if (fieldName == null)
{
fieldName = "dynamicInput_0";
var i = 0;
while (this.HasPort(fieldName))
{
fieldName = "dynamicInput_" + (++i);
}
}
else if (this.HasPort(fieldName))
{
Debug.LogWarning("Port '" + fieldName + "' already exists in " + this.name, this);
return(this.ports[fieldName]);
}
var port = new NodePort(fieldName, type, direction, connectionType, typeConstraint, this);
this.ports.Add(fieldName, port);
return(port);
}
public override Ce FilterBy(TypeConstraint filter)
{
Throw.IfArgumentNull(filter, "filter");
var newSource = source.Select(ceResult => ceResult.FilterBy(filter)).ToList();
return(new TypeSetCe(newSource));
}
public ReferencedTypesTypeSet FilterBy(TypeConstraint filter)
{
Throw.IfArgumentNull(filter, "filter");
return new ReferencedTypesTypeSet(
sourceField.Where(filter.Check),
originalField
);
}
public ReferencedTypesTypeSet FilterBy(TypeConstraint filter)
{
Throw.IfArgumentNull(filter, "filter");
return(new ReferencedTypesTypeSet(
sourceField.Where(filter.Check),
originalField
));
}
internal AndTypeConstraint(TypeConstraint left, TypeConstraint right)
{
Throw.IfArgumentNull(left, "left");
Throw.IfArgumentNull(right, "right");
leftField = left;
rightField = right;
}
/// <summary>
/// Mark a serializable field as an input port. You can access this through <see cref="GetInputPort(string)"/>
/// </summary>
/// <param name="backingValue">
/// Should we display the backing value for this port as an editor field?
/// </param>
/// <param name="connectionType">Should we allow multiple connections?</param>
/// <param name="typeConstraint">
/// Constrains which input connections can be made to this port
/// </param>
/// <param name="dynamicPortList">
/// If true, will display a reorderable list of inputs instead of a single port. Will
/// automatically add and display values for lists and arrays
/// </param>
/// <param name="allowedTypes">If set apply to typeConstraint</param>
public InputAttribute(ShowBackingValue backingValue = ShowBackingValue.Unconnected, ConnectionType connectionType = ConnectionType.Multiple, TypeConstraint typeConstraint = TypeConstraint.None, bool dynamicPortList = false, params Type[] allowedTypes)
{
this.backingValue = backingValue;
this.connectionType = connectionType;
this.dynamicPortList = dynamicPortList;
this.typeConstraint = typeConstraint;
this.allowedTypes = allowedTypes;
}
protected override string InnerTranslate()
{
if (TypeConstraint != null && !IsExcludeConstraint)
{
return($"{Syntax.Identifier} extends {TypeConstraint.Translate()}");
}
return(Syntax.Identifier.ToString());
}
private IEnumerable <PropertyInfo> GetProperties(BindingFlags bindingFlags)
{
if (bindingFlags == BindingFlags.Default)
{
return(TypeConstraint.Properties());
}
return(TypeConstraint.Properties(bindingFlags));
}
/// <summary>
/// Get a property by name, or throw exception
/// </summary>
/// <exception cref="NoSuchPropertyException"/>
private PropertyInfo GetProperty(string propertyName)
{
var property = TypeConstraint.Property(propertyName);
if (property == null)
{
throw new NoSuchPropertyException(TypeConstraint, propertyName);
}
return(property);
}
void AssertTypeConstraint(TypeConstraint expected, TypeConstraint actual)
{
Assert.AreEqual(expected.Constraint, actual.Constraint);
if (expected.Constraint == ConstraintType.Type)
{
AssertMemberRef(expected.ConstrainedType, actual.ConstrainedType.Type, actual.ConstrainedType.ID);
}
else if (expected.Constraint == ConstraintType.TypeParam)
{
Assert.AreEqual(expected.ConstrainedTypeParamPosition, actual.ConstrainedTypeParamPosition);
}
}
internal static ExpressionType ConstrainToTypes(TypeConstraint allowedTypes, ExpressionType constrainerA, ExpressionType constrainerB)
{
if (constrainerA.Constraints == TypeConstraint.NoType)
{
return(ConstrainToType(allowedTypes, constrainerB));
}
if (constrainerB.Constraints == TypeConstraint.NoType)
{
return(ConstrainToType(allowedTypes, constrainerA));
}
// Both constrainers have types. Constrain to the intersection of their constraints.
return(new ExpressionType(IntersectConstraints(allowedTypes, IntersectConstraints(constrainerA.Constraints, constrainerB.Constraints))));
}
private IEnumerable <PropertyInfo> GetProperties(Type propertyType, BindingFlags bindingFlags)
{
IEnumerable <PropertyInfo> properties;
if (bindingFlags == BindingFlags.Default)
{
properties = TypeConstraint.Properties().Where(x => x.PropertyType == propertyType);
}
else
{
properties = TypeConstraint.Properties(bindingFlags).Where(x => x.PropertyType == propertyType);
}
return(properties);
}
public static TreeNodeViewModel BuildSelectorTree(TypeConstraint constraints)
{
TreeNodeViewModel tree = new TreeNodeViewModel();
BuildConstantSelectorTree(tree, constraints.DotNetTypes);
BuildEnumerationsSelectorTree(tree, constraints.Enumerations);
BuildConceptSelectorTree(tree, constraints.DataTypes, typeof(DataType));
BuildConceptSelectorTree(tree, constraints.Concepts, typeof(SyntaxNode));
// expand only top level nodes
foreach (TreeNodeViewModel treeNode in tree.TreeNodes)
{
treeNode.IsExpanded = true;
}
return(tree);
}
public void TestGetTypeParamConstraints()
{
Type gcClass = typeof(GenericConstrainedClass <, , ,>);
Type[] typeparams = gcClass.GetGenericArguments();
Type tParam = typeparams[0];
Type uParam = typeparams[1];
Type vParam = typeparams[2];
Type wParam = typeparams[3];
var tExpected = new TypeConstraint[] { TypeConstraint.Struct };
var uExpected = new TypeConstraint[] { TypeConstraint.Class, TypeConstraint.Ctor };
var vExpected = new TypeConstraint[] { TypeConstraint.TypeParam(3) };
var wExpected = new TypeConstraint[] { TypeConstraint.Type(new MemberRef("", MemberRefType.Class, typeof(TestClass).MetadataToken)) };
AssertTypeConstraints(tExpected, utility.GetTypeParamConstraints(tParam));
AssertTypeConstraints(uExpected, utility.GetTypeParamConstraints(uParam));
AssertTypeConstraints(vExpected, utility.GetTypeParamConstraints(vParam));
AssertTypeConstraints(wExpected, utility.GetTypeParamConstraints(wParam));
}
public IReadOnlyList <TypeConstraint> GetTypeParamConstraints(Type typeParam)
{
Check.Ref(typeParam);
Check.Cond(typeParam.IsGenericParameter, "typeParam must be a generic parameter type");
List <TypeConstraint> constraints = new List <TypeConstraint>();
var attr = typeParam.GenericParameterAttributes;
if (attr.HasFlag(GenericParameterAttributes.NotNullableValueTypeConstraint))
{
constraints.Add(TypeConstraint.Struct);
}
else
{
if (attr.HasFlag(GenericParameterAttributes.ReferenceTypeConstraint))
{
constraints.Add(TypeConstraint.Class);
}
if (attr.HasFlag(GenericParameterAttributes.DefaultConstructorConstraint))
{
constraints.Add(TypeConstraint.Ctor);
}
foreach (var constraint in typeParam.GetGenericParameterConstraints())
{
if (constraint.IsGenericParameter)
{
int pos = constraint.GenericParameterPosition;
constraints.Add(TypeConstraint.TypeParam(pos));
}
else
{
MemberRef mRef = new MemberRef(constraint.Name, GetMemberRefType(constraint), constraint.MetadataToken);
constraints.Add(TypeConstraint.Type(mRef));
}
}
}
return(constraints.ToArray());
}
internal static ExpressionType ConstrainToType(TypeConstraint allowedTypes, ExpressionType constrainer)
{
return(new ExpressionType(IntersectConstraints(constrainer.Constraints, allowedTypes)));
}
internal static TypeConstraint IntersectConstraints(TypeConstraint a, TypeConstraint b)
{
return(a & b);
}
private void Setup([CanBeNull] Type setValue, [NotNull] Type[] setBaseTypeConstraints, TypeConstraint setTypeCategoryConstraint, LinkedMemberInfo setMemberInfo, IParentDrawer setParent, GUIContent setLabel, bool setReadOnly)
{
baseTypeConstraints = setBaseTypeConstraints;
typeCategoryConstraint = setTypeCategoryConstraint;
base.Setup(setValue, typeof(Type), setMemberInfo, setParent, setLabel, setReadOnly);
}
/// <summary> Creates a new instance of the drawer or returns a reusable instance from the pool. </summary>
/// <param name="value"> The initial cached value of the drawer. </param>
/// <param name="memberInfo"> LinkedMemberInfo for the class member that the created drawer represents. Can be null. </param>
/// <param name="parent"> The parent drawer of the created drawer. Can be null. </param>
/// <param name="label"> The prefix label. </param>
/// <param name="readOnly"> True if drawer should be read only. </param>
/// <returns> The drawer instance, ready to be used. </returns>
public static ConstraintedTypeDrawer Create([CanBeNull] Type value, [NotNull] Type[] baseTypeConstraints, TypeConstraint typeCategoryConstraint, LinkedMemberInfo memberInfo, IParentDrawer parent, GUIContent label, bool readOnly)
{
ConstraintedTypeDrawer result;
if (!DrawerPool.TryGet(out result))
{
result = new ConstraintedTypeDrawer();
}
result.Setup(value, baseTypeConstraints, typeCategoryConstraint, memberInfo, parent, label, readOnly);
result.LateSetup();
return(result);
}
public static int ComputeCe(this Type that, TypeConstraint filter = null)
{
return(Ce
.For(that)
.FilterBy(filter));
}
protected override void OnMouseDown(object parameter)
{
if (!(parameter is MouseButtonEventArgs args))
{
return;
}
if (args.ChangedButton == MouseButton.Right)
{
return;
}
args.Handled = true;
Visual control = args.Source as Visual;
if (IsTemporallyVisible)
{
base.OnMouseDown(parameter);
return;
}
// get parent concept node
var ancestor = this.Ancestor <ConceptNodeViewModel>();
if (ancestor == null)
{
return;
}
// check if property is referencing assembly - special case !
if (ancestor.SyntaxNode.IsAssemblyReference(PropertyBinding))
{
IAssemblyConcept assemblyConcept = SelectAssemblyReference(ancestor.SyntaxNode, PropertyBinding, control);
if (assemblyConcept == null)
{
return;
}
SyntaxTreeManager.SetConceptProperty(ancestor.SyntaxNode, PropertyBinding, assemblyConcept.Assembly);
SyntaxNode = ancestor.SyntaxNode;
OnPropertyChanged(nameof(Presentation));
return;
}
// get hosting script concept
ScriptConcept script;
if (ancestor.SyntaxNode is ScriptConcept)
{
script = (ScriptConcept)ancestor.SyntaxNode;
}
else
{
script = ancestor.SyntaxNode.Ancestor <ScriptConcept>() as ScriptConcept;
}
// get type constraints of the property
TypeConstraint constraints = SyntaxTreeManager.GetTypeConstraints(script?.Languages, ancestor.SyntaxNode, PropertyBinding);
// build tree view
TreeNodeViewModel viewModel = SyntaxNodeSelector.BuildSelectorTree(constraints);
// open dialog window
PopupWindow dialog = new PopupWindow(control, viewModel);
_ = dialog.ShowDialog();
if (dialog.Result == null)
{
return;
}
Type selectedType = dialog.Result.NodePayload as Type;
if (selectedType == null)
{
return;
}
// set binded property of the model by selected reference
PropertyInfo property = ancestor.SyntaxNode.GetPropertyInfo(PropertyBinding);
if (SyntaxTreeManager.GetPropertyType(property) == typeof(Type))
{
selectedType = SelectTypeReference(ancestor.SyntaxNode, selectedType, control);
SyntaxTreeManager.SetConceptProperty(ancestor.SyntaxNode, PropertyBinding, selectedType);
SyntaxNodeType = selectedType;
}
else if (selectedType.IsEnum)
{
object enumValue = SelectEnumerationValue(selectedType, control);
if (enumValue == null)
{
return;
}
SyntaxTreeManager.SetConceptProperty(ancestor.SyntaxNode, PropertyBinding, enumValue);
}
else
{
ISyntaxNode reference;
if (selectedType.IsSubclassOf(typeof(DataType)))
{
reference = (ISyntaxNode)Activator.CreateInstance(selectedType);
}
else
{
// use dialog and scope provider to find reference to the node in the syntax tree
reference = SelectSyntaxNodeReference(selectedType, ancestor.SyntaxNode, PropertyBinding, control);
if (reference == null)
{
return;
}
}
SyntaxTreeManager.SetConceptProperty(ancestor.SyntaxNode, PropertyBinding, reference);
SyntaxNode = reference;
}
// reset view model's state
OnPropertyChanged(nameof(Presentation));
}
static TypeAssert Name(string name, TypeConstraint typeConstraint) => new TypeAssert(new Name(name), typeConstraint);
public TypeAssert(Expression child, TypeConstraint constraints)
{
_child = child;
_constraints = constraints;
}
internal static ExpressionType AssertMatchingTypes(TypeConstraint allowedTypes, ExpressionType constrainerA, ExpressionType constrainerB, TypeConstraint resultType)
{
var doTypesMatch = IntersectConstraints(allowedTypes, IntersectConstraints(constrainerA.Constraints, constrainerB.Constraints)) != TypeConstraint.NoType;
return(new ExpressionType(doTypesMatch ? resultType : TypeConstraint.NoType));
}
public ExpressionType(TypeConstraint constraints)
{
Constraints = constraints;
}
public abstract Ce FilterBy(TypeConstraint filter);
return !filterField.Check(type);
}
}
}
public Ce Ignoring(TypeConstraint toIgnore)
{
Throw.IfArgumentNull(toIgnore, "toIgnore");
return(FilterBy(toIgnore.Not()));
}
public static TypeConstraint Or(this Type left, TypeConstraint right)
{
return TypeConstraint.EqualsTo(left)
.Or(right);
}
public override Ce FilterBy(TypeConstraint filter)
{
return(filter == null ?
this :
new TypeCe(references.FilterBy(filter), Type));
}
public static int ComputeCe(this Type that, TypeConstraint filter = null)
{
return Ce
.For(that)
.FilterBy(filter);
}
internal OrTypeConstraint(TypeConstraint left, TypeConstraint right)
{
leftField = left;
rightField = right;
}