public void ExecuteAttrib()
{
string attribFile = Path.Combine(TaskUtility.TestDirectory, @"attrib.txt");
File.WriteAllText(attribFile, "This is a test file");
Attrib task = new Attrib();
task.BuildEngine = new MockBuild();
task.Files = TaskUtility.StringArrayToItemArray(attribFile);
task.ReadOnly = true;
task.Hidden = true;
task.System = true;
task.Execute();
bool isReadOnly = ((File.GetAttributes(attribFile) & FileAttributes.ReadOnly) == FileAttributes.ReadOnly);
bool isHidden = ((File.GetAttributes(attribFile) & FileAttributes.Hidden) == FileAttributes.Hidden);
bool isSystem = ((File.GetAttributes(attribFile) & FileAttributes.System) == FileAttributes.System);
Assert.IsTrue(isReadOnly, "Attribute should be readonly");
Assert.IsTrue(isHidden, "Attribute should be hidden");
Assert.IsTrue(isSystem, "Attribute should be system");
task = new Attrib();
task.BuildEngine = new MockBuild();
task.Files = TaskUtility.StringArrayToItemArray(attribFile);
task.Hidden = false;
task.System = false;
task.Execute();
isReadOnly = ((File.GetAttributes(attribFile) & FileAttributes.ReadOnly) == FileAttributes.ReadOnly);
isHidden = ((File.GetAttributes(attribFile) & FileAttributes.Hidden) == FileAttributes.Hidden);
isSystem = ((File.GetAttributes(attribFile) & FileAttributes.System) == FileAttributes.System);
Assert.IsTrue(isReadOnly, "Attribute should be readonly");
Assert.IsFalse(isHidden, "Attribute should not be hidden");
Assert.IsFalse(isSystem, "Attribute should not be system");
task = new Attrib();
task.BuildEngine = new MockBuild();
task.Files = TaskUtility.StringArrayToItemArray(attribFile);
task.Normal = true;
task.Execute();
isReadOnly = ((File.GetAttributes(attribFile) & FileAttributes.ReadOnly) == FileAttributes.ReadOnly);
Assert.IsFalse(isReadOnly, "Attribute should not be readonly");
}
private object GetSVAttributeValue(Attrib attribute)
{
object csEntryAttributeValue;
if (!attribute.IsPresent || attribute.Values.Count <= 0)
{
if (attribute.DataType == AttributeType.Boolean)
{
return(false);
}
else
{
return(null);
}
}
switch (attribute.DataType)
{
case AttributeType.Binary:
csEntryAttributeValue = attribute.Values[0].ToBinary();
break;
case AttributeType.Boolean:
csEntryAttributeValue = attribute.Values[0].ToBoolean();
break;
case AttributeType.Integer:
csEntryAttributeValue = attribute.Values[0].ToInteger();
break;
case AttributeType.String:
csEntryAttributeValue = attribute.Values[0].ToString();
break;
case AttributeType.Reference:
case AttributeType.Undefined:
default:
throw new UnknownOrUnsupportedDataTypeException();
}
return(csEntryAttributeValue);
}
private void SetAttributeValues(IList <object> attributeValues, Attrib attribute)
{
if (attribute.Values.Count > 0)
{
attribute.Values.Clear();
}
if (!attribute.IsMultivalued && attributeValues.Count > 1)
{
throw new TooManyValuesException(attribute.Name);
}
foreach (object value in attributeValues)
{
if (value == null)
{
continue;
}
switch (attribute.DataType)
{
case AttributeType.Binary:
attribute.Values.Add(TypeConverter.ConvertData <byte[]>(value));
break;
case AttributeType.Integer:
attribute.Values.Add(TypeConverter.ConvertData <long>(value));
break;
case AttributeType.String:
attribute.Values.Add(TypeConverter.ConvertData <string>(value));
break;
case AttributeType.Boolean:
case AttributeType.Reference:
case AttributeType.Undefined:
default:
throw new UnknownOrUnsupportedDataTypeException();
}
}
}
private IList <object> GetSourceValuesForImport(FlowRuleParameters parameters, CSEntry csentry, out AttributeType attributeType)
{
List <object> values = new List <object>();
attributeType = AttributeType.Undefined;
foreach (string attributeName in parameters.SourceAttributeNames)
{
if (attributeName == "DN")
{
values.Add(csentry.DN.ToString());
}
else
{
Attrib attribute = csentry[attributeName];
if (attributeType == AttributeType.Undefined)
{
attributeType = attribute.DataType;
}
else if (attributeType != attribute.DataType)
{
attributeType = AttributeType.String;
}
if (attribute.IsMultivalued)
{
values.AddRange(this.GetMVAttributeValue(attribute));
}
else
{
values.Add(this.GetSVAttributeValue(attribute));
}
}
}
return(values);
}
private IList <object> GetSourceValuesFromMultipleConnectorsForImport(FlowRuleParameters parameters, CSEntry csentry, MVEntry mventry, out AttributeType attributeType)
{
List <object> values = new List <object>();
attributeType = AttributeType.Undefined;
IEnumerable <CSEntry> csentries = mventry.ConnectedMAs.OfType <ConnectedMA>().Where(t => t.Name == csentry.MA.Name).SelectMany(t => t.Connectors.OfType <CSEntry>());
foreach (string attributeName in parameters.SourceAttributeNames)
{
foreach (CSEntry othercsentry in csentries.Where(t => t.ObjectType == csentry.ObjectType))
{
Attrib attribute = othercsentry[attributeName];
if (attributeType == AttributeType.Undefined)
{
attributeType = attribute.DataType;
}
else if (attributeType != attribute.DataType)
{
attributeType = AttributeType.String;
}
if (attribute.IsMultivalued)
{
values.AddRange(this.GetMVAttributeValue(attribute));
}
else
{
values.Add(this.GetSVAttributeValue(attribute));
}
}
}
return(values);
}
public void AddComponent_WithComplexConfiguration_WorksFine()
{
Kernel.Register(
Component.For <ClassWithComplexParameter>()
.Configuration(
Child.ForName("parameters").Eq(
Attrib.ForName("notUsed").Eq(true),
Child.ForName("complexparam").Eq(
Child.ForName("complexparametertype").Eq(
Child.ForName("mandatoryvalue").Eq("value1"),
Child.ForName("optionalvalue").Eq("value2")
)
)
)
)
);
var component = Kernel.Resolve <ClassWithComplexParameter>();
Assert.IsNotNull(component);
Assert.IsNotNull(component.ComplexParam);
Assert.AreEqual("value1", component.ComplexParam.MandatoryValue);
Assert.AreEqual("value2", component.ComplexParam.OptionalValue);
}
static public Attrib[] GetClassAttributes(Hashtable attrib, System.Type type)
{
System.Collections.Generic.List <Attrib> a = new System.Collections.Generic.List <Attrib>();
IDictionaryEnumerator enu = attrib.GetEnumerator();
System.Reflection.PropertyInfo pi = null;
System.Reflection.FieldInfo fi = null;
string dt = null;
string _unsupportedtypes = "";
bool _nonPrimitiveAttSpecified = false;
while (enu.MoveNext())
{
pi = type.GetProperty(enu.Key.ToString());
if (pi != null)
{
dt = pi.PropertyType.FullName;
}
if (pi == null)
{
fi = type.GetField(enu.Key.ToString());
if (fi != null)
{
dt = fi.FieldType.FullName;
}
}
if (pi != null || fi != null)
{
Attrib tempAttrib = new Attrib();
tempAttrib.Name = (string)enu.Key;
tempAttrib.ID = (string)enu.Value;
tempAttrib.Type = dt;
System.Type currentType = System.Type.GetType(dt);
if (currentType != null && !currentType.IsPrimitive && currentType.FullName != "System.DateTime" && currentType.FullName != "System.String" && currentType.FullName != "System.Decimal")
{
_nonPrimitiveAttSpecified = true;
_unsupportedtypes += currentType.FullName + "\n";
}
if (currentType == null)
{
_nonPrimitiveAttSpecified = true;
_unsupportedtypes += "Unknown Type\n";
}
a.Add(tempAttrib);
}
else
{
string message = "Invalid class attribute(s) specified '" + enu.Key.ToString() + "'.";
throw new Exception(message);
}
pi = null;
fi = null;
}
if (_nonPrimitiveAttSpecified)
{
throw new Exception("NCache Queries only support primitive types. The following type(s) is/are not supported:\n" + _unsupportedtypes);
}
return((Attrib[])a.ToArray());
}
protected Effect(Attrib affectedAttribute, int value)
{
AffectedAttribute = affectedAttribute;
Value = value;
}
//Let the modifier apply it's own values... off the type... yea
//I did that on purpose ;-)
public void Apply(Attrib a)
{
a.Value = ModifierType.ApplyModifier(this, a.Value);
}
internal override bool ParseNodeBodyElement(string id, VRMLParser parser)
{
int line = parser.Line;
if (id == "attrib")
{
List <X3DNode> nodes = parser.ParseSFNodeOrMFNodeValue();
foreach (X3DNode node in nodes)
{
X3DVertexAttributeNode attr = node as X3DVertexAttributeNode;
if (attr == null)
{
parser.ErrorParsingNode(VRMLReaderError.UnexpectedNodeType, this, id, node, line);
}
else
{
Attrib.Add(attr);
}
}
}
else if (id == "color")
{
X3DNode node = parser.ParseSFNodeValue();
if (node != null)
{
Color = node as X3DColorNode;
if (Color == null)
{
parser.ErrorParsingNode(VRMLReaderError.UnexpectedNodeType, this, id, node, line);
}
}
}
else if (id == "fogCoord")
{
X3DNode node = parser.ParseSFNodeValue();
if (node != null)
{
FogCoord = node as IX3DFogCoordinateNode;
if (FogCoord == null)
{
parser.ErrorParsingNode(VRMLReaderError.UnexpectedNodeType, this, id, node, line);
}
}
}
else if (id == "normal")
{
X3DNode node = parser.ParseSFNodeValue();
if (node != null)
{
Normal = node as X3DNormalNode;
if (Normal == null)
{
parser.ErrorParsingNode(VRMLReaderError.UnexpectedNodeType, this, id, node, line);
}
}
}
else if (id == "texCoord")
{
X3DNode node = parser.ParseSFNodeValue();
if (node != null)
{
TexCoord = node as X3DTextureCoordinateNode;
if (TexCoord == null)
{
parser.ErrorParsingNode(VRMLReaderError.UnexpectedNodeType, this, id, node, line);
}
}
}
else if (id == "ccw")
{
CCW = parser.ParseBoolValue();
}
else if (id == "colorPerVertex")
{
ColorPerVertex = parser.ParseBoolValue();
}
else if (id == "creaseAngle")
{
CreaseAngle = parser.ParseDoubleValue();
}
else if (id == "height")
{
Height.AddRange(parser.ParseSFFloatOrMFFloatValue());
}
else if (id == "normalPerVertex")
{
NormalPerVertex = parser.ParseBoolValue();
}
else if (id == "solid")
{
Solid = parser.ParseBoolValue();
}
else if (id == "xDimension")
{
XDimension = parser.ParseIntValue();
}
else if (id == "xSpacing")
{
XSpacing = parser.ParseDoubleValue();
}
else if (id == "zDimension")
{
ZDimension = parser.ParseIntValue();
}
else if (id == "zSpacing")
{
ZSpacing = parser.ParseDoubleValue();
}
else
{
return(false);
}
return(true);
}
public int GetInt(Attrib attrib)
{
return GetInt((uint)attrib, 0);
}
public int GetInt(Attrib attrib)
{
if (acd == null)
return -1;
return acd.GetInt(attrib);
}
/// <inheritdoc />
public ErrorCode GetAttrib(Attrib attrib, ref byte[] buffer)
{
var ret = _cardChannel.GetAttrib(attrib, ref buffer);
return(ret);
}
/// <summary>
/// Initializes a new instance of the <see cref="VertexBuffer" /> class.
/// </summary>
/// <param name="attributes">The vertex attributes.</param>
/// <param name="caching">The data caching policy.</param>
public VertexBuffer(Attrib attributes, Caching caching = Caching.Static)
{
this.attributes = attributes;
this.caching = caching;
this.stride = 12;
if (this.Has(Attrib.Normal))
{
this.stride += 12;
}
if (this.Has(Attrib.Tangent))
{
this.stride += 16;
}
if (this.Has(Attrib.Color))
{
this.stride += 4;
}
if (this.Has(Attrib.UV))
{
this.stride += 8;
}
}
/// <inheritdoc/>
public ErrorCode GetAttrib(Attrib attrib, ref byte[] buffer)
{
return(cardChannel.GetAttrib(attrib, ref buffer));
}
public float GetFloat(Attrib attribute)
{
return reader.ReadFloat(GetAttribute((uint)attribute));
}
private bool Has(Attrib attribute)
{
return (this.attributes & attribute) == attribute;
}
public static Settings Parse(Settings settings, XElement rootElement)
{
if (rootElement == null)
{
return(settings);
}
ParseAttributes(rootElement, Attrib.OptionalBool(nameof(AutoInit), x => settings.AutoInit = x),
Attrib.OptionalBool(nameof(GenerateRegistrations), x => settings.GenerateRegistrations = x),
Attrib.OptionalEnum <DebugLogLevel>(nameof(DebugLogLevel), x => settings.DebugLogLevel = x),
Attrib.OptionalBool(nameof(DebugExceptions), x => settings.DebugExceptions = x),
Attrib.Create(nameof(Behavior), x => settings.Behavior = x, (string x, out Behaviors behavior) =>
{
behavior = Behaviors.None;
if (string.IsNullOrWhiteSpace(x))
{
return(false);
}
foreach (string value in x.Split(','))
{
if (Enum.TryParse(value, out Behaviors @enum))
{
behavior |= @enum;
}
else
{
return(false);
}
}
return(true);
}, false),
Attrib.OptionalEnum <CodeLanguage>(nameof(DebugCodeGeneration), x => settings.DebugCodeGeneration = x));
foreach (XElement element in rootElement.DescendantNodes().OfType <XElement>())
{
if (element.Name.LocalName.Equals("Assembly", StringComparison.OrdinalIgnoreCase))
{
string assemblyName = "";
ParseAttributes(element, Attrib.RequiredString("Name", x => assemblyName = x));
settings.Assemblies.Add(new MatchAssembly(assemblyName));
}
else if (element.Name.LocalName.Equals("Type", StringComparison.OrdinalIgnoreCase))
{
string typePattern = "";
Lifetime lifetime = DefaultLifetime;
ParseAttributes(element, Attrib.RequiredString("Name", x => typePattern = x),
Attrib.RequiredEnum <Lifetime>("Lifetime", x => lifetime = x));
settings.Types.Add(new MatchType(typePattern, lifetime));
}
else if (element.Name.LocalName.Equals("Map", StringComparison.OrdinalIgnoreCase))
{
string from = ""; //GetRequiredString(element, "From");
string to = ""; //GetRequiredString(element, "To");
bool force = false;
Lifetime?lifetime = null;
ParseAttributes(element, Attrib.RequiredString("From", x => from = x),
Attrib.RequiredString("To", x => to = x),
Attrib.OptionalBool("Force", x => force = x),
Attrib.OptionalEnum <Lifetime>("Lifetime", x => lifetime = x));
settings.Maps.Add(new Map(from, to, force, lifetime));
}
else
{
throw new SettingsParseException($"'{element.Name.LocalName}' is not a valid child node of AutoDI");
}
}
return(settings);
void ParseAttributes(XElement element, params IAttribute[] attributes)
private void SetDestinationAttributeValueForExport(CSEntry csentry, IEnumerable <object> values)
{
Attrib attribute = csentry[this.TargetAttribute];
this.SetDestinationAttributeValue(attribute, values);
}
public float GetFloat(Attrib attrib)
{
return GetFloat((uint)attrib, 0);
}
/// <inheritdoc />
public ErrorCode GetAttrib(Attrib attrib, ref byte[] buffer)
{
return(RequestLayer(null, SearchMode.Top).GetAttrib(attrib, ref buffer));
}
public ModifyEffect(Attrib affectedAttribute, int value) : base(affectedAttribute, value)
{
}
public int GetInt(Attrib attrib)
{
return(GetInt((uint)attrib, 0));
}
public GreaterThanAttribPrecondition(Attrib attribute, Attrib comparedAttrib) : base(attribute, comparedAttrib)
{
}
public float GetFloat(Attrib attrib)
{
return(GetFloat((uint)attrib, 0));
}
//And a way to add attribs and set base values..
//once again, you will want more but this will get you started
public void AddAttribute(Attrib x)
{
_rawAttributes.Add(x.Name, x);
}
internal override bool ParseNodeBodyElement(string id, VRMLParser parser)
{
int line = parser.Line;
if (id == "attrib")
{
List <X3DNode> nodes = parser.ParseSFNodeOrMFNodeValue();
foreach (X3DNode node in nodes)
{
X3DVertexAttributeNode attr = node as X3DVertexAttributeNode;
if (attr == null)
{
parser.ErrorParsingNode(VRMLReaderError.UnexpectedNodeType, this, id, node, line);
}
else
{
Attrib.Add(attr);
}
}
}
else if (id == "color")
{
X3DNode node = parser.ParseSFNodeValue();
if (node != null)
{
Color = node as X3DColorNode;
if (Color == null)
{
parser.ErrorParsingNode(VRMLReaderError.UnexpectedNodeType, this, id, node, line);
}
}
}
else if (id == "coord")
{
X3DNode node = parser.ParseSFNodeValue();
if (node != null)
{
Coord = node as X3DCoordinateNode;
if (Coord == null)
{
parser.ErrorParsingNode(VRMLReaderError.UnexpectedNodeType, this, id, node, line);
}
}
}
else if (id == "fogCoord")
{
X3DNode node = parser.ParseSFNodeValue();
if (node != null)
{
FogCoord = node as IX3DFogCoordinateNode;
if (FogCoord == null)
{
parser.ErrorParsingNode(VRMLReaderError.UnexpectedNodeType, this, id, node, line);
}
}
}
else
{
return(false);
}
return(true);
}
public PreconditionCompareValue(Attrib attribute, int value) : base(attribute)
{
Value = value;
}
protected override void InternalWrite()
{
foreach (EntityObject entity in Document.Entities)
{
if (entity is AcadProxyEntity)
{
AcadProxyEntity e = entity as AcadProxyEntity;
TextWriter.Write(Utilities.AcadProxyEntityToDxfFormat(e));
continue;
}
if (entity is Arc)
{
Arc e = entity as Arc;
TextWriter.Write(Utilities.ArcToDxfFormat(e));
continue;
}
if (entity is Attrib)
{
Attrib e = entity as Attrib;
TextWriter.Write(Utilities.AttribToDxfFormat(e));
continue;
}
if (entity is AttributeDefinition)
{
AttributeDefinition e = entity as AttributeDefinition;
TextWriter.Write(Utilities.AttributeDefinitionToDxfFormat(e));
continue;
}
if (entity is Body)
{
Body e = entity as Body;
TextWriter.Write(Utilities.BodyToDxfFormat(e));
continue;
}
if (entity is Circle)
{
Circle e = entity as Circle;
TextWriter.Write(Utilities.CircleToDxfFormat(e));
continue;
}
if (entity is Dimension)
{
Dimension e = entity as Dimension;
TextWriter.Write(Utilities.DimensionToDxfFormat(e));
continue;
}
if (entity is Ellipse)
{
Ellipse e = entity as Ellipse;
TextWriter.Write(Utilities.EllipseToDxfFormat(e));
continue;
}
if (entity is EndSection)
{
EndSection e = entity as EndSection;
TextWriter.Write(Utilities.EndSectionToDxfFormat(e));
continue;
}
if (entity is Face3d)
{
Face3d e = entity as Face3d;
TextWriter.Write(Utilities.Face3dToDxfFormat(e));
continue;
}
if (entity is Hatch)
{
Hatch e = entity as Hatch;
TextWriter.Write(Utilities.HatchToDxfFormat(e));
continue;
}
if (entity is Helix)
{
Helix e = entity as Helix;
TextWriter.Write(Utilities.HelixToDxfFormat(e));
continue;
}
if (entity is Image)
{
Image e = entity as Image;
TextWriter.Write(Utilities.ImageToDxfFormat(e));
continue;
}
if (entity is Insert)
{
Insert e = entity as Insert;
TextWriter.Write(Utilities.InsertToDxfFormat(e));
continue;
}
if (entity is Leader)
{
Leader e = entity as Leader;
TextWriter.Write(Utilities.LeaderToDxfFormat(e));
continue;
}
if (entity is Light)
{
Light e = entity as Light;
TextWriter.Write(Utilities.LightToDxfFormat(e));
continue;
}
if (entity is Line)
{
Line e = entity as Line;
TextWriter.Write(Utilities.LineToDxfFormat(e));
continue;
}
if (entity is LwPolyline)
{
LwPolyline e = entity as LwPolyline;
TextWriter.Write(Utilities.LwPolylineToDxfFormat(e));
continue;
}
if (entity is Mesh)
{
Mesh e = entity as Mesh;
TextWriter.Write(Utilities.MeshToDxfFormat(e));
continue;
}
if (entity is MultiLeader)
{
MultiLeader e = entity as MultiLeader;
TextWriter.Write(Utilities.MultiLeaderToDxfFormat(e));
continue;
}
if (entity is MultiLeaderStyle)
{
MultiLeaderStyle e = entity as MultiLeaderStyle;
TextWriter.Write(Utilities.MultiLeaderStyleToDxfFormat(e));
continue;
}
if (entity is MultiLine)
{
MultiLine e = entity as MultiLine;
TextWriter.Write(Utilities.MultiLineToDxfFormat(e));
continue;
}
if (entity is MultiText)
{
MultiText e = entity as MultiText;
TextWriter.Write(Utilities.MultiTextToDxfFormat(e));
continue;
}
if (entity is Ole2Frame)
{
Ole2Frame e = entity as Ole2Frame;
TextWriter.Write(Utilities.Ole2FrameToDxfFormat(e));
continue;
}
if (entity is OleFrame)
{
OleFrame e = entity as OleFrame;
TextWriter.Write(Utilities.OleFrameToDxfFormat(e));
continue;
}
if (entity is Point)
{
Point e = entity as Point;
TextWriter.Write(Utilities.PointToDxfFormat(e));
continue;
}
if (entity is PolyLine)
{
PolyLine e = entity as PolyLine;
TextWriter.Write(Utilities.PolyLineToDxfFormat(e));
continue;
}
if (entity is Ray)
{
Ray e = entity as Ray;
TextWriter.Write(Utilities.RayToDxfFormat(e));
continue;
}
if (entity is Region)
{
Region e = entity as Region;
TextWriter.Write(Utilities.RegionToDxfFormat(e));
continue;
}
if (entity is Section)
{
Section e = entity as Section;
TextWriter.Write(Utilities.SectionToDxfFormat(e));
continue;
}
if (entity is Shape)
{
Shape e = entity as Shape;
TextWriter.Write(Utilities.ShapeToDxfFormat(e));
continue;
}
if (entity is Solid)
{
Solid e = entity as Solid;
TextWriter.Write(Utilities.SolidToDxfFormat(e));
continue;
}
if (entity is Solid3d)
{
Solid3d e = entity as Solid3d;
TextWriter.Write(Utilities.Solid3dToDxfFormat(e));
continue;
}
if (entity is Spline)
{
Spline e = entity as Spline;
TextWriter.Write(Utilities.SplineToDxfFormat(e));
continue;
}
if (entity is Sun)
{
Sun e = entity as Sun;
TextWriter.Write(Utilities.SunToDxfFormat(e));
continue;
}
if (entity is Surface)
{
Surface e = entity as Surface;
TextWriter.Write(Utilities.SurfaceToDxfFormat(e));
continue;
}
if (entity is Table)
{
Table e = entity as Table;
TextWriter.Write(Utilities.TableToDxfFormat(e));
continue;
}
if (entity is Text)
{
Text e = entity as Text;
TextWriter.Write(Utilities.TextToDxfFormat(e));
continue;
}
if (entity is Tolerance)
{
Tolerance e = entity as Tolerance;
TextWriter.Write(Utilities.ToleranceToDxfFormat(e));
continue;
}
if (entity is Trace)
{
Trace e = entity as Trace;
TextWriter.Write(Utilities.TraceToDxfFormat(e));
continue;
}
if (entity is Underlay)
{
Underlay e = entity as Underlay;
TextWriter.Write(Utilities.UnderlayToDxfFormat(e));
continue;
}
if (entity is Vertex)
{
Vertex e = entity as Vertex;
TextWriter.Write(Utilities.VertexToDxfFormat(e));
continue;
}
if (entity is ViewPort)
{
ViewPort e = entity as ViewPort;
TextWriter.Write(Utilities.ViewPortToDxfFormat(e));
continue;
}
if (entity is WipeOut)
{
WipeOut e = entity as WipeOut;
TextWriter.Write(Utilities.WipeOutToDxfFormat(e));
continue;
}
if (entity is XLine)
{
XLine e = entity as XLine;
TextWriter.Write(Utilities.XLineToDxfFormat(e));
continue;
}
}
}
public PreconditionAttribConstraint(Attrib attribute)
{
Attribute = attribute;
}
public ErrorCode GetAttrib(Attrib attrib, ref byte[] buffer)
{
var ret = stack.RequestLayer(this, SearchMode.Next).GetAttrib(attrib, ref buffer);
return(ret);
}
public void Add(Attrib attrib, AttribType attribType, byte num, bool normalized, bool asInt)
{
vertex_layout_add((Bgfx.Bgfx.VertexLayout *)Unsafe.AsPointer(ref InternalHandle), attrib, num, attribType, normalized, asInt);
}
internal void Click5LabelModel(
Gaussian inputScoreMean,
Gamma inputScorePrec,
Gamma inputJudgePrec,
Gamma inputClickPrec,
Gaussian[] inputThresh,
Gaussian[][] clickObservations)
{
// Add variables outside plate - all variables outside the plate should
// be marked as outputs because we will be communicating their messages
// across chunks
double scoreMean = Factor.Random(inputScoreMean);
double scorePrec = Factor.Random(inputScorePrec);
double judgePrec = Factor.Random(inputJudgePrec);
double clickPrec = Factor.Random(inputClickPrec);
double thresh0 = Factor.Random(inputThresh[0]);
double thresh1 = Factor.Random(inputThresh[1]);
double thresh2 = Factor.Random(inputThresh[2]);
double thresh3 = Factor.Random(inputThresh[3]);
double thresh4 = Factor.Random(inputThresh[4]);
double thresh5 = Factor.Random(inputThresh[5]);
//Attrib.AllVars(new DivideMessages(false), thresh0, thresh1, thresh2, thresh3, thresh4, thresh5);
//Attrib.AllVars(new DivideMessages(false), scoreMean, scorePrec, judgePrec, clickPrec);
// Plate 1
int n1 = clickObservations[0].Length;
double[] scores1 = new double[n1];
double[] scoresJ1 = new double[n1];
double[] scoresC1 = new double[n1];
for (int i1 = 0; i1 < n1; i1++)
{
Attrib.Var(i1, new Sequential());
scores1[i1] = Factor.Gaussian(scoreMean, scorePrec);
// click-based score
scoresC1[i1] = Factor.Gaussian(scores1[i1], clickPrec);
Constrain.EqualRandom(scoresC1[i1], clickObservations[0][i1]);
// judged score
scoresJ1[i1] = Factor.Gaussian(scores1[i1], judgePrec);
bool h1 = Factor.IsBetween(scoresJ1[i1], thresh0, thresh1);
Constrain.Equal(true, h1);
}
// Plate 2
int n2 = clickObservations[1].Length;
double[] scores2 = new double[n2];
double[] scoresJ2 = new double[n2];
double[] scoresC2 = new double[n2];
for (int i2 = 0; i2 < n2; i2++)
{
Attrib.Var(i2, new Sequential());
scores2[i2] = Factor.Gaussian(scoreMean, scorePrec);
// click-based score
scoresC2[i2] = Factor.Gaussian(scores2[i2], clickPrec);
Constrain.EqualRandom(scoresC2[i2], clickObservations[1][i2]);
// judged score
scoresJ2[i2] = Factor.Gaussian(scores2[i2], judgePrec);
bool h2 = Factor.IsBetween(scoresJ2[i2], thresh1, thresh2);
Constrain.Equal(true, h2);
}
// Plate 3
int n3 = clickObservations[2].Length;
double[] scores3 = new double[n3];
double[] scoresJ3 = new double[n3];
double[] scoresC3 = new double[n3];
for (int i3 = 0; i3 < n3; i3++)
{
Attrib.Var(i3, new Sequential());
scores3[i3] = Factor.Gaussian(scoreMean, scorePrec);
// click-based score
scoresC3[i3] = Factor.Gaussian(scores3[i3], clickPrec);
Constrain.EqualRandom(scoresC3[i3], clickObservations[2][i3]);
// judged score
scoresJ3[i3] = Factor.Gaussian(scores3[i3], judgePrec);
bool h3 = Factor.IsBetween(scoresJ3[i3], thresh2, thresh3);
Constrain.Equal(true, h3);
}
// Plate 4
int n4 = clickObservations[3].Length;
double[] scores4 = new double[n4];
double[] scoresJ4 = new double[n4];
double[] scoresC4 = new double[n4];
for (int i4 = 0; i4 < n4; i4++)
{
Attrib.Var(i4, new Sequential());
scores4[i4] = Factor.Gaussian(scoreMean, scorePrec);
// click-based score
scoresC4[i4] = Factor.Gaussian(scores4[i4], clickPrec);
Constrain.EqualRandom(scoresC4[i4], clickObservations[3][i4]);
// judged score
scoresJ4[i4] = Factor.Gaussian(scores4[i4], judgePrec);
bool h4 = Factor.IsBetween(scoresJ4[i4], thresh3, thresh4);
Constrain.Equal(true, h4);
}
// Plate 5
int n5 = clickObservations[4].Length;
double[] scores5 = new double[n5];
double[] scoresJ5 = new double[n5];
double[] scoresC5 = new double[n5];
for (int i5 = 0; i5 < n5; i5++)
{
Attrib.Var(i5, new Sequential());
scores5[i5] = Factor.Gaussian(scoreMean, scorePrec);
// click-based score
scoresC5[i5] = Factor.Gaussian(scores5[i5], clickPrec);
Constrain.EqualRandom(scoresC5[i5], clickObservations[4][i5]);
// judged score
scoresJ5[i5] = Factor.Gaussian(scores5[i5], judgePrec);
bool h5 = Factor.IsBetween(scoresJ5[i5], thresh4, thresh5);
Constrain.Equal(true, h5);
}
//Attrib.AllVars(new DivideMessages(false), scores1, scores2, scores3, scores4, scores5);
//Attrib.AllVars(new DivideMessages(false), scoresC1, scoresC2, scoresC3, scoresC4, scoresC5);
//Attrib.AllVars(new DivideMessages(false), scoresJ1, scoresJ2, scoresJ3, scoresJ4, scoresJ5);
InferNet.Infer(scoreMean, nameof(scoreMean));
InferNet.Infer(scorePrec, nameof(scorePrec));
InferNet.Infer(judgePrec, nameof(judgePrec));
InferNet.Infer(clickPrec, nameof(clickPrec));
InferNet.Infer(thresh0, nameof(thresh0));
InferNet.Infer(thresh1, nameof(thresh1));
InferNet.Infer(thresh2, nameof(thresh2));
InferNet.Infer(thresh3, nameof(thresh3));
InferNet.Infer(thresh4, nameof(thresh4));
InferNet.Infer(thresh5, nameof(thresh5));
}
public int GetInt(Attrib attribute)
{
return reader.ReadInt(GetAttribute((uint)attribute));
}
public LessThanAttribPrecondition(Attrib attribute, Attrib comparedAttrib) : base(attribute, comparedAttrib)
{
}
public PreconditionCompareAttrib(Attrib attribute, Attrib comparedAttribute) : base(attribute)
{
ComparedAttribute = comparedAttribute;
}
internal override bool ParseNodeBodyElement(string id, VRMLParser parser)
{
int line = parser.Line;
if (id == "attrib")
{
List <X3DNode> nodes = parser.ParseSFNodeOrMFNodeValue();
foreach (X3DNode node in nodes)
{
X3DVertexAttributeNode attr = node as X3DVertexAttributeNode;
if (attr == null)
{
parser.ErrorParsingNode(VRMLReaderError.UnexpectedNodeType, this, id, node, line);
}
else
{
Attrib.Add(attr);
}
}
}
else if (id == "color")
{
X3DNode node = parser.ParseSFNodeValue();
if (node != null)
{
Color = node as X3DColorNode;
if (Color == null)
{
parser.ErrorParsingNode(VRMLReaderError.UnexpectedNodeType, this, id, node, line);
}
}
}
else if (id == "coord")
{
X3DNode node = parser.ParseSFNodeValue();
if (node != null)
{
Coord = node as X3DCoordinateNode;
if (Coord == null)
{
parser.ErrorParsingNode(VRMLReaderError.UnexpectedNodeType, this, id, node, line);
}
}
}
else if (id == "fogCoord")
{
X3DNode node = parser.ParseSFNodeValue();
if (node != null)
{
FogCoord = node as IX3DFogCoordinateNode;
if (FogCoord == null)
{
parser.ErrorParsingNode(VRMLReaderError.UnexpectedNodeType, this, id, node, line);
}
}
}
else if (id == "normal")
{
X3DNode node = parser.ParseSFNodeValue();
if (node != null)
{
Normal = node as X3DNormalNode;
if (Normal == null)
{
parser.ErrorParsingNode(VRMLReaderError.UnexpectedNodeType, this, id, node, line);
}
}
}
else if (id == "texCoord")
{
X3DNode node = parser.ParseSFNodeValue();
if (node != null)
{
TexCoord = node as X3DTextureCoordinateNode;
if (TexCoord == null)
{
parser.ErrorParsingNode(VRMLReaderError.UnexpectedNodeType, this, id, node, line);
}
}
}
else if (id == "ccw")
{
CCW = parser.ParseBoolValue();
}
else if (id == "colorPerVertex")
{
ColorPerVertex = parser.ParseBoolValue();
}
else if (id == "normalPerVertex")
{
NormalPerVertex = parser.ParseBoolValue();
}
else if (id == "solid")
{
Solid = parser.ParseBoolValue();
}
else if (id == "index")
{
Index = parser.ParseSFInt32OrMFInt32Value();
}
else
{
return(false);
}
return(true);
}
public SetEffect(Attrib affectedAttribute, int value) : base(affectedAttribute, value)
{
}
public float GetFloat(Attrib attrib)
{
if (acd == null)
return -1;
return acd.GetFloat(attrib);
}