public override IDeepCopyable CopyTo(IDeepCopyable other)
{
var dest = other as Location;
if (dest == null)
{
throw new ArgumentException("Can only copy to an object of the same type", "other");
}
base.CopyTo(dest);
if (Identifier != null)
{
dest.Identifier = new List <Hl7.Fhir.Model.Identifier>(Identifier.DeepCopy());
}
if (StatusElement != null)
{
dest.StatusElement = (Code <Hl7.Fhir.Model.Location.LocationStatus>)StatusElement.DeepCopy();
}
if (NameElement != null)
{
dest.NameElement = (Hl7.Fhir.Model.FhirString)NameElement.DeepCopy();
}
if (DescriptionElement != null)
{
dest.DescriptionElement = (Hl7.Fhir.Model.FhirString)DescriptionElement.DeepCopy();
}
if (ModeElement != null)
{
dest.ModeElement = (Code <Hl7.Fhir.Model.Location.LocationMode>)ModeElement.DeepCopy();
}
if (Type != null)
{
dest.Type = (Hl7.Fhir.Model.CodeableConcept)Type.DeepCopy();
}
if (Telecom != null)
{
dest.Telecom = new List <Hl7.Fhir.Model.ContactPoint>(Telecom.DeepCopy());
}
if (Address != null)
{
dest.Address = (Hl7.Fhir.Model.Address)Address.DeepCopy();
}
if (PhysicalType != null)
{
dest.PhysicalType = (Hl7.Fhir.Model.CodeableConcept)PhysicalType.DeepCopy();
}
if (Position != null)
{
dest.Position = (Hl7.Fhir.Model.Location.PositionComponent)Position.DeepCopy();
}
if (ManagingOrganization != null)
{
dest.ManagingOrganization = (Hl7.Fhir.Model.ResourceReference)ManagingOrganization.DeepCopy();
}
if (PartOf != null)
{
dest.PartOf = (Hl7.Fhir.Model.ResourceReference)PartOf.DeepCopy();
}
return(dest);
}
/// <summary>
/// PeerEventArgs Constructor
/// </summary>
/// <param name="parsed">a simple MessageParse</param>
internal PeerEventArgs(dynamic parsed)
{
#if DEBUG
FCP2Protocol.ArgsDebug(this, parsed);
#endif
lastGoodVersion = parsed.lastGoodVersion;
opennet = parsed.opennet;
myName = parsed.myName;
identity = parsed.identity;
location = parsed.location;
testnet = parsed.testnet;
version = parsed.version;
physical = new PhysicalType(parsed);
ark = new ArkType(parsed);
dsaPubKey = new DsaPubKeyType(parsed);
dsaGroup = new DsaGroupType(parsed);
auth = new AuthType(parsed);
@volatile = new VolatileType(parsed);
metadata = new MetadataType(parsed);
#if DEBUG
parsed.PrintAccessCount();
#endif
}
/// <summary>
/// PeerEventArgs Constructor
/// </summary>
/// <param name="parsed">a simple MessageParse</param>
internal PeerEventArgs(dynamic parsed)
{
#if DEBUG
FCP2Protocol.ArgsDebug(this, parsed);
#endif
LastGoodVersion = parsed.lastGoodVersion;
Opennet = parsed.opennet;
MyName = parsed.myName;
Identity = parsed.identity;
Location = parsed.location;
Testnet = parsed.testnet;
Version = parsed.version;
Physical = new PhysicalType(parsed);
Ark = new ArkType(parsed);
DsaPubKey = new DsaPubKeyType(parsed);
DsaGroup = new DsaGroupType(parsed);
Auth = new AuthType(parsed);
Volatile = new VolatileType(parsed);
Metadata = new MetadataType(parsed);
#if DEBUG
parsed.PrintAccessCount();
#endif
}
/// <summary>
/// PeerEventArgs Constructor
/// </summary>
/// <param name="parsed">a simple MessageParse</param>
internal PeerEventArgs(dynamic parsed)
{
#if DEBUG
FCP2Protocol.ArgsDebug(this, parsed);
#endif
lastGoodVersion = parsed.lastGoodVersion;
opennet = parsed.opennet;
myName = parsed.myName;
identity = parsed.identity;
location = parsed.location;
testnet = parsed.testnet;
version = parsed.version;
physical = new PhysicalType(parsed);
ark = new ArkType(parsed);
dsaPubKey = new DsaPubKeyType(parsed);
dsaGroup = new DsaGroupType(parsed);
auth = new AuthType(parsed);
@volatile = new VolatileType(parsed);
metadata = new MetadataType(parsed);
#if DEBUG
parsed.PrintAccessCount();
#endif
}
/// <summary>
/// NodeDataEventArgs Constructor
/// </summary>
/// <param name="parsed">a simple MessageParse</param>
internal NodeDataEventArgs(dynamic parsed)
{
#if DEBUG
FCP2Protocol.ArgsDebug(this, parsed);
#endif
LastGoodVersion = parsed.lastGoodVersion;
Sig = parsed.sig;
Opennet = parsed.opennet;
Identity = parsed.identity;
Version = parsed.version;
Physical = new PhysicalType(parsed.physical);
Ark = new ArkType(parsed.ark);
DsaPubKey = new DsaPubKeyType(parsed.dsaPubKey);
DsaPrivKey = new DsaPrivKeyType(parsed.dsaPrivKey);
DsaGroup = new DsaGroupType(parsed.dsaGroup);
Auth = new AuthType(parsed.auth);
ClientNonce = parsed.clientNonce;
Location = parsed.location;
if (!parsed.location.LastConversionSucessfull) { Location = -1.0; }
if ([email protected]())
{
Volatile = new VolatileType(parsed.@volatile);
}
#if DEBUG
parsed.PrintAccessCount();
#endif
}
/// <summary>
/// NodeDataEventArgs Constructor
/// </summary>
/// <param name="parsed">a simple MessageParse</param>
internal NodeDataEventArgs(dynamic parsed)
{
#if DEBUG
FCP2Protocol.ArgsDebug(this, parsed);
#endif
lastGoodVersion = parsed.lastGoodVersion;
sig = parsed.sig;
opennet = parsed.opennet;
identity = parsed.identity;
version = parsed.version;
physical = new PhysicalType(parsed.physical);
ark = new ArkType(parsed.ark);
dsaPubKey = new DsaPubKeyType(parsed.dsaPubKey);
dsaPrivKey = new DsaPrivKeyType(parsed.dsaPrivKey);
dsaGroup = new DsaGroupType(parsed.dsaGroup);
auth = new AuthType(parsed.auth);
clientNonce = parsed.clientNonce;
location = parsed.location;
if (!parsed.location.LastConversionSucessfull)
{
location = -1.0;
}
if ([email protected]())
{
@volatile = new VolatileType(parsed.@volatile);
}
#if DEBUG
parsed.PrintAccessCount();
#endif
}
/// <summary>
/// PeerEventArgs Constructor
/// </summary>
/// <param name="parsed">a simple MessageParse</param>
internal PeerEventArgs(dynamic parsed)
{
#if DEBUG
FCP2Protocol.ArgsDebug(this, parsed);
#endif
LastGoodVersion = parsed.lastGoodVersion;
Opennet = parsed.opennet;
MyName = parsed.myName;
Identity = parsed.identity;
Location = parsed.location;
Testnet = parsed.testnet;
Version = parsed.version;
Physical = new PhysicalType(parsed);
Ark = new ArkType(parsed);
DsaPubKey = new DsaPubKeyType(parsed);
DsaGroup = new DsaGroupType(parsed);
Auth = new AuthType(parsed);
Volatile = new VolatileType(parsed);
Metadata = new MetadataType(parsed);
#if DEBUG
parsed.PrintAccessCount();
#endif
}
private static IntPtr Make(
string name, Repetition repetition, PhysicalType type, LogicalType logicalType,
int length, int precision, int scale)
{
ExceptionInfo.Check(PrimitiveNode_Make(name, repetition, type, logicalType, length, precision, scale, out var primitiveNode));
return(primitiveNode);
}
private void Initialize(Image Sprite, PhysicalType pt, int x, int y, int width32, int height,
bool collidable)
{
physicalType = pt;
X = x;
Y = y;
Width = width32 * 32;
Height = height;
collision = new Rectangle((int)X, (int)Y, Width, Height);
if (Width > 32)
{
this.Sprite = new Bitmap(Width, Height);
using (var brush = new TextureBrush(Sprite, WrapMode.Tile))
using (var g = Graphics.FromImage(this.Sprite))
{
g.FillRectangle(brush, 0, 0, Width, Height);
}
}
else
{
this.Sprite = Sprite;
}
Collidable = collidable;
}
/// <summary>
/// Updates the value of the scalar element identified by the given tag
/// or adds a new scalar element if one does not already exist.
/// </summary>
/// <param name="tag">The tag which identifies the scalar element to be updated.</param>
/// <param name="type">The physical type of the value contained in the scalar element.</param>
/// <param name="bytes">The value to be entered into the scalar element.</param>
/// <returns>The scalar element which was updated, or a new scalar element if one did not already exist.</returns>
public ScalarElement AddOrUpdateScalar(Guid tag, PhysicalType type, byte[] bytes)
{
ScalarElement scalarElement = GetOrAddScalar(tag);
scalarElement.TypeOfValue = type;
scalarElement.SetValue(bytes, 0);
return(scalarElement);
}
public PrimitiveNode(
string name,
Repetition repetition,
LogicalType logicalType,
PhysicalType physicalType,
int primitiveLength = -1)
: this(Make(name, repetition, logicalType, physicalType, primitiveLength))
{
}
/// <summary>
/// Updates the values contained by the vector element identified by the given tag
/// or adds a new vector element if one does not already exist.
/// </summary>
/// <param name="tag">The tag which identifies the vector element to be updated.</param>
/// <param name="type">The physical type of the values contained in the vector element.</param>
/// <param name="bytes">The values to be entered into the vector element.</param>
/// <returns>The vector element which was updated, or a new vector element if one did not already exist.</returns>
public VectorElement AddOrUpdateVector(Guid tag, PhysicalType type, byte[] bytes)
{
VectorElement vectorElement = GetOrAddVector(tag);
vectorElement.TypeOfValue = type;
vectorElement.Size = bytes.Length / type.GetByteSize();
vectorElement.SetValues(bytes, 0);
return(vectorElement);
}
public PhysicalEffect() : base()
{
xPos = "0";
yPos = "0";
zPos = "0";
xValue = "0";
yValue = "0";
zValue = "0";
physicalType = PhysicalType.Force;
}
public PhysicalEffect(Effect copySource) : base(copySource)
{
xPos = "0";
yPos = "0";
zPos = "0";
xValue = "0";
yValue = "0";
zValue = "0";
physicalType = PhysicalType.Force;
}
public PhysicalEffect(PhysicalEffect copySource) : base(copySource)
{
xPos = copySource.xPos;
yPos = copySource.yPos;
zPos = copySource.zPos;
xValue = copySource.xValue;
yValue = copySource.yValue;
zValue = copySource.zValue;
physicalType = copySource.physicalType;
}
// Tags are readonly and can only be created by
// defining them in the TagDefinitions.xml file.
private Tag(XDocument doc, XElement element)
{
m_id = Guid.Parse((string)element.Element("id"));
m_name = (string)element.Element("name");
m_standardName = (string)element.Element("standardName");
m_description = (string)element.Element("description");
m_elementType = GetElementType(element);
m_physicalType = GetPhysicalType(element);
m_required = ((string)element.Element("required") ?? "False").ParseBoolean();
m_formatString = (string)element.Element("formatString");
m_validIdentifiers = Identifier.GenerateIdentifiers(doc, this);
}
// Tags are readonly and can only be created by
// defining them in the TagDefinitions.xml file.
private Tag(XDocument doc, XElement element)
{
m_id = Guid.Parse((string)element.Element("id"));
m_name = (string)element.Element("name");
m_standardName = (string)element.Element("standardName");
m_description = (string)element.Element("description");
m_elementType = GetElementType(element);
m_physicalType = GetPhysicalType(element);
m_required = ((string)element.Element("required") ?? "False").ParseBoolean();
m_formatString = (string)element.Element("formatString");
m_validIdentifiers = Identifier.GenerateIdentifiers(doc, this);
}
// Reads a scalar element from the PQDIF file.
private ScalarElement ReadScalar(BinaryReader recordBodyReader, PhysicalType typeOfValue)
{
ScalarElement element = new ScalarElement()
{
TypeOfValue = typeOfValue
};
byte[] value = recordBodyReader.ReadBytes(typeOfValue.GetByteSize());
element.SetValue(value, 0);
return(element);
}
// Reads a vector element from the PQDIF file.
private VectorElement ReadVector(BinaryReader recordBodyReader, PhysicalType typeOfValue)
{
VectorElement element = new VectorElement()
{
Size = recordBodyReader.ReadInt32(),
TypeOfValue = typeOfValue
};
byte[] values = recordBodyReader.ReadBytes(element.Size * typeOfValue.GetByteSize());
element.SetValues(values, 0);
return(element);
}
public BodyInfo(PhysicalType physicalType, Shape[] shapes)
{
size = 0f;
this.shapes = shapes;
foreach (Shape shape in shapes)
{
size = Math.Max(size, shape.GetMaxDistance());
if (typeof(Polygon) == shape.GetType())
{
((Polygon)shape).CalculateNormals();
}
}
this.physicalType = physicalType;
size *= 2f;
}
// Reads an element from the PQDIF file.
private Element ReadElement(BinaryReader recordBodyReader)
{
Element element;
Guid tagOfElement = new Guid(recordBodyReader.ReadBytes(16));
ElementType typeOfElement = (ElementType)recordBodyReader.ReadByte();
PhysicalType typeOfValue = (PhysicalType)recordBodyReader.ReadByte();
bool isEmbedded = recordBodyReader.ReadByte() != 0;
// Read reserved byte
recordBodyReader.ReadByte();
long link;
long returnLink;
returnLink = recordBodyReader.BaseStream.Position + 8L;
if (!isEmbedded || typeOfElement != ElementType.Scalar)
{
link = recordBodyReader.ReadInt32();
recordBodyReader.BaseStream.Seek(link, SeekOrigin.Begin);
}
switch (typeOfElement)
{
case ElementType.Collection:
element = ReadCollection(recordBodyReader);
break;
case ElementType.Scalar:
element = ReadScalar(recordBodyReader, typeOfValue);
break;
case ElementType.Vector:
element = ReadVector(recordBodyReader, typeOfValue);
break;
default:
element = new UnknownElement(typeOfElement);
element.TypeOfValue = typeOfValue;
break;
}
element.TagOfElement = tagOfElement;
recordBodyReader.BaseStream.Seek(returnLink, SeekOrigin.Begin);
return(element);
}
private static IntPtr Make(
string name,
Repetition repetition,
LogicalType logicalType,
PhysicalType physicalType,
int primitiveLength)
{
if (name == null)
{
throw new ArgumentNullException(nameof(name));
}
ExceptionInfo.Check(PrimitiveNode_Make(name, repetition, logicalType?.Handle.IntPtr ?? IntPtr.Zero, physicalType, primitiveLength, out var primitiveNode));
GC.KeepAlive(logicalType?.Handle);
return(primitiveNode);
}
private static (LogicalType LogicalType, PhysicalType PhysicalType) GetEntry(
LogicalType?logicalTypeOverride, LogicalType?logicalType, PhysicalType physicalType)
{
// By default, return the first listed logical type.
if (logicalTypeOverride == null || logicalTypeOverride is NoneLogicalType)
{
if (logicalType == null)
{
throw new ArgumentNullException(nameof(logicalType), $"both {nameof(logicalType)} and {nameof(logicalTypeOverride)} are null");
}
return(logicalType, physicalType);
}
// Milliseconds TimeSpan can be stored on Int32
if (logicalTypeOverride is TimeLogicalType {
TimeUnit: TimeUnit.Millis
})
private static (LogicalType LogicalType, PhysicalType PhysicalType) GetEntry(
LogicalType logicalTypeOverride, LogicalType logicalType, PhysicalType physicalType)
{
// By default, return the first listed logical type.
if (logicalTypeOverride == null || logicalTypeOverride is NoneLogicalType)
{
return(logicalType, physicalType);
}
// Milliseconds TimeSpan can be stored on Int32
if (logicalTypeOverride is TimeLogicalType timeLogicalType && timeLogicalType.TimeUnit == TimeUnit.Millis)
{
physicalType = PhysicalType.Int32;
}
// Otherwise allow one of the supported override.
return(logicalTypeOverride, physicalType);
}
public List <object> GetListOfObjects()
{
List <object> res = new List <object>();
foreach (VhdlFile file in parent.files)
{
foreach (LibraryUnit libraryUnit in file.Elements)
{
if (libraryUnit is PackageDeclaration)
{
foreach (IPackageDeclarativeItem o in (libraryUnit as PackageDeclaration).Declarations)
{
if (o is EnumerationType)
{
EnumerationType type = o as EnumerationType;
res.Add(type);
//TODO: support overloading
foreach (EnumerationLiteral literal in type.Literals)
{
res.Add(literal);
}
}
else if (o is PhysicalType)
{
PhysicalType type = o as PhysicalType;
res.Add(type);
}
}
}
if (libraryUnit is INamedEntity)
{
INamedEntity ie = (INamedEntity)libraryUnit;
res.Add(ie);
}
}
}
return(res);
}
/// <summary>
/// Gets the size of the physical type, in bytes.
/// </summary>
/// <param name="type">The physical type.</param>
/// <returns>The size of the physical type, in bytes.</returns>
public static int GetByteSize(this PhysicalType type)
{
switch (type)
{
case PhysicalType.Boolean1:
case PhysicalType.Char1:
case PhysicalType.Integer1:
case PhysicalType.UnsignedInteger1:
return(1);
case PhysicalType.Boolean2:
case PhysicalType.Char2:
case PhysicalType.Integer2:
case PhysicalType.UnsignedInteger2:
return(2);
case PhysicalType.Boolean4:
case PhysicalType.Integer4:
case PhysicalType.UnsignedInteger4:
case PhysicalType.Real4:
return(4);
case PhysicalType.Real8:
case PhysicalType.Complex8:
return(8);
case PhysicalType.Timestamp:
return(12);
case PhysicalType.Complex16:
case PhysicalType.Guid:
return(16);
default:
throw new ArgumentOutOfRangeException("type");
}
}
private static extern IntPtr ColumnChunkMetaData_Type(IntPtr columnChunkMetaData, out PhysicalType type);
internal InstalmentInfoNotFoundException(Guid orderId, PhysicalType physicalType)
{
this.OrderId = orderId;
this.PhysicalType = physicalType;
}
private static extern IntPtr PrimitiveNode_Make(
[MarshalAs(UnmanagedType.LPUTF8Str)] string name, Repetition repetition, IntPtr logicalType, PhysicalType type, int primitiveLength, out IntPtr primitiveNode);
private static extern IntPtr ColumnReader_Type(IntPtr columnReader, out PhysicalType type);
private static extern IntPtr PrimitiveNode_Physical_Type(IntPtr node, out PhysicalType physicalType);
// Reads a vector element from the PQDIF file.
private VectorElement ReadVector(BinaryReader recordBodyReader, PhysicalType typeOfValue)
{
VectorElement element = new VectorElement()
{
Size = recordBodyReader.ReadInt32(),
TypeOfValue = typeOfValue
};
byte[] values = recordBodyReader.ReadBytes(element.Size * typeOfValue.GetByteSize());
element.SetValues(values, 0);
return element;
}
// Reads an element from the PQDIF file.
private Element ReadElement(BinaryReader recordBodyReader)
{
Element element;
Guid tagOfElement = Guid.Empty;
ElementType typeOfElement = 0;
PhysicalType typeOfValue = 0;
bool isEmbedded;
// Calculate the location of the next element
// after this one in case we encounter any errors
long nextLink = recordBodyReader.BaseStream.Position + 28L;
try
{
tagOfElement = new Guid(recordBodyReader.ReadBytes(16));
typeOfElement = (ElementType)recordBodyReader.ReadByte();
typeOfValue = (PhysicalType)recordBodyReader.ReadByte();
isEmbedded = recordBodyReader.ReadByte() != 0;
// Read reserved byte
recordBodyReader.ReadByte();
long link;
long returnLink;
returnLink = recordBodyReader.BaseStream.Position + 8L;
if (!isEmbedded || typeOfElement != ElementType.Scalar)
{
link = recordBodyReader.ReadInt32();
if (link < 0 || link >= recordBodyReader.BaseStream.Length)
{
throw new InvalidOperationException("Element link is outside the bounds of the file");
}
recordBodyReader.BaseStream.Seek(link, SeekOrigin.Begin);
}
switch (typeOfElement)
{
case ElementType.Collection:
element = ReadCollection(recordBodyReader);
break;
case ElementType.Scalar:
element = ReadScalar(recordBodyReader, typeOfValue);
break;
case ElementType.Vector:
element = ReadVector(recordBodyReader, typeOfValue);
break;
default:
element = new UnknownElement(typeOfElement);
element.TypeOfValue = typeOfValue;
break;
}
element.TagOfElement = tagOfElement;
recordBodyReader.BaseStream.Seek(returnLink, SeekOrigin.Begin);
return(element);
}
catch (Exception ex)
{
m_exceptionList.Add(ex);
// Jump to the location of the next element after this one
if (nextLink < recordBodyReader.BaseStream.Length)
{
recordBodyReader.BaseStream.Seek(nextLink, SeekOrigin.Begin);
}
else
{
recordBodyReader.BaseStream.Seek(0L, SeekOrigin.End);
}
return(new ErrorElement(typeOfElement, ex)
{
TagOfElement = tagOfElement,
TypeOfValue = typeOfValue
});
}
}
public static extern void SetupDevice1(int devId, PhysicalType connType);
// Reads a scalar element from the PQDIF file.
private ScalarElement ReadScalar(BinaryReader recordBodyReader, PhysicalType typeOfValue)
{
ScalarElement element = new ScalarElement()
{
TypeOfValue = typeOfValue
};
byte[] value = recordBodyReader.ReadBytes(typeOfValue.GetByteSize());
element.SetValue(value, 0);
return element;
}
public List <object> GetLocalListOfObjects()
{
List <object> res = new List <object>();
foreach (E declaration in this)
{
if (declaration is EnumerationType)
{
EnumerationType type = declaration as EnumerationType;
res.Add(type);
//TODO: support overloading
foreach (EnumerationLiteral literal in type.Literals)
{
res.Add(literal);
}
}
else if (declaration is RecordType)
{
RecordType type = declaration as RecordType;
res.Add(type);
foreach (VHDL.type.RecordType.ElementDeclaration el in type.Elements)
{
foreach (string name in el.Identifiers)
{
res.Add(name);
}
}
}
else if (declaration is PhysicalType)
{
PhysicalType type = declaration as PhysicalType;
res.Add(type);
res.Add(new PhysicalLiteral(null, type.PrimaryUnit, declaration as PhysicalType));
foreach (PhysicalType.Unit unit in type.Units)
{
res.Add(unit.Identifier);
}
}
else if (declaration is NamedEntity)
{
INamedEntity identElement = (NamedEntity)declaration;
res.Add(declaration);
}
else if (declaration is SignalDeclaration)
{
SignalDeclaration objDecl = declaration as SignalDeclaration;
foreach (var o in objDecl.Objects)
{
res.Add(o);
}
}
else if (declaration is ConstantDeclaration)
{
ConstantDeclaration objDecl = declaration as ConstantDeclaration;
foreach (var o in objDecl.Objects)
{
res.Add(o);
}
}
else if (declaration is VariableDeclaration)
{
VariableDeclaration objDecl = declaration as VariableDeclaration;
foreach (var o in objDecl.Objects)
{
res.Add(o);
}
}
else if (declaration is FileDeclaration)
{
FileDeclaration objDecl = declaration as FileDeclaration;
foreach (var o in objDecl.Objects)
{
res.Add(o);
}
}
else if (declaration is Alias)
{
res.Add(declaration);
}
else if (declaration is Subtype)
{
res.Add(declaration);
}
else if (declaration is UseClause)
{
UseClause use = declaration as UseClause;
res.AddRange(use.Scope.GetLocalListOfObjects());
}
else if (declaration.GetType().BaseType == typeof(ObjectDeclaration <>))
{
ObjectDeclaration <VhdlObject> objDecl = declaration as ObjectDeclaration <VhdlObject>;
foreach (VhdlObject o in objDecl.Objects)
{
res.Add(o);
}
}
}
return(res);
}
public object Resolve(string identifier)
{
foreach (E declaration in this)
{
if (declaration is EnumerationType)
{
EnumerationType type = declaration as EnumerationType;
if (identifier.EqualsIdentifier(type.Identifier))
{
return(type);
}
//TODO: support overloading
foreach (EnumerationLiteral literal in type.Literals)
{
if (identifier.EqualsIdentifier(literal.ToString()))
{
return(literal);
}
}
}
else if (declaration is RecordType)
{
RecordType type = declaration as RecordType;
if (identifier.EqualsIdentifier(type.Identifier))
{
return(type);
}
foreach (VHDL.type.RecordType.ElementDeclaration el in type.Elements)
{
foreach (string name in el.Identifiers)
{
if (identifier.EqualsIdentifier(name))
{
return(new Variable(name, el.Type));
}
}
}
}
else if (declaration is PhysicalType)
{
PhysicalType type = declaration as PhysicalType;
if (identifier.EqualsIdentifier(type.Identifier))
{
return(type);
}
//TODO: don't use strings for the physical literals
if (identifier.EqualsIdentifier(type.PrimaryUnit))
{
return(new PhysicalLiteral(null, type.PrimaryUnit, declaration as PhysicalType));
}
foreach (PhysicalType.Unit unit in type.Units)
{
if (identifier.EqualsIdentifier(unit.Identifier))
{
return(new PhysicalLiteral(null, unit.Identifier, declaration as PhysicalType));
}
}
}
else if (declaration is NamedEntity)
{
INamedEntity identElement = (NamedEntity)declaration;
if (identifier.EqualsIdentifier(identElement.Identifier))
{
return(declaration);
}
}
else if (declaration is SignalDeclaration)
{
SignalDeclaration objDecl = declaration as SignalDeclaration;
foreach (var o in objDecl.Objects)
{
if (o.Identifier.EqualsIdentifier(identifier))
{
return(o);
}
}
}
else if (declaration is ConstantDeclaration)
{
ConstantDeclaration objDecl = declaration as ConstantDeclaration;
foreach (var o in objDecl.Objects)
{
if (o.Identifier.EqualsIdentifier(identifier))
{
return(o);
}
}
}
else if (declaration is VariableDeclaration)
{
VariableDeclaration objDecl = declaration as VariableDeclaration;
foreach (var o in objDecl.Objects)
{
if (o.Identifier.EqualsIdentifier(identifier))
{
return(o);
}
}
}
else if (declaration is FileDeclaration)
{
FileDeclaration objDecl = declaration as FileDeclaration;
foreach (var o in objDecl.Objects)
{
if (o.Identifier.EqualsIdentifier(identifier))
{
return(o);
}
}
}
else if (declaration is Alias)
{
Alias objDecl = declaration as Alias;
if (objDecl.Designator.EqualsIdentifier(identifier))
{
return(objDecl.Aliased);//new Variable(objDecl.Aliased, objDecl.SubtypeIndication);
}
}
else if (declaration is Subtype)
{
Subtype objDecl = declaration as Subtype;
if (objDecl.Identifier.EqualsIdentifier(identifier))
{
return(objDecl);
}
}
else if (declaration is UseClause)
{
UseClause use = declaration as UseClause;
object res = use.Scope.resolve(identifier);
if (res != null)
{
return(res);
}
}
else if (declaration.GetType().BaseType == typeof(ObjectDeclaration <>))
{
ObjectDeclaration <VhdlObject> objDecl = declaration as ObjectDeclaration <VhdlObject>;
foreach (VhdlObject o in objDecl.Objects)
{
if (o.Identifier.EqualsIdentifier(identifier))
{
return(o);
}
}
}
}
return(null);
}