public Asn1Tagged(Asn1Decoder dec, Stream in_Renamed, int len, Asn1Identifier identifier) : base(identifier)
{
// If we are decoding an implicit tag, there is no way to know at this
// low level what the base type really is. We can place the content
// into an Asn1OctetString type and pass it back to the application who
// will be able to create the appropriate ASN.1 type for this tag.
content = new Asn1OctetString(dec, in_Renamed, len);
}
public override string ToString()
{
string[] classTypes = new string[] { "[UNIVERSAL ", "[APPLICATION ", "[", "[PRIVATE " };
StringBuilder sb = new StringBuilder();
Asn1Identifier id = getIdentifier(); // could be overridden.
sb.Append(classTypes[id.Asn1Class]).Append(id.Tag).Append("] ");
return(sb.ToString());
}
/// <summary> Constructs an Asn1Tagged object.</summary>
public Asn1Tagged(Asn1Identifier identifier, Asn1Object objectRenamed, bool explicitRenamed)
: base(identifier)
{
_content = objectRenamed;
Explicit = explicitRenamed;
if (!explicitRenamed && _content != null)
{
// replace object's id with new tag.
_content.SetIdentifier(identifier);
}
}
/// <summary> Constructs an Asn1Tagged object.</summary>
public Asn1Tagged(Asn1Identifier identifier, Asn1Object object_Renamed, bool explicit_Renamed)
: base(identifier)
{
this.content = object_Renamed;
this.explicit_Renamed = explicit_Renamed;
if (!explicit_Renamed && content != null)
{
// replace object's id with new tag.
content.setIdentifier(identifier);
}
}
/// <summary> Constructs an Asn1Tagged object.</summary>
public Asn1Tagged(Asn1Identifier identifier, Asn1Object object_Renamed, bool explicit_Renamed)
: base(identifier)
{
this.content = object_Renamed;
this.explicit_Renamed = explicit_Renamed;
if (!explicit_Renamed && content != null)
{
// replace object's id with new tag.
content.setIdentifier(identifier);
}
return ;
}
/* Encoders for ASN.1 useful types
*/
/* Encoder for ASN.1 Identifier
*/
/// <summary> Encode an Asn1Identifier directly into the specified outputstream.</summary>
public void encode(Asn1Identifier id, Stream out_Renamed)
{
var c = id.Asn1Class;
var t = id.Tag;
var ccf = (sbyte)((c << 6) | (id.Constructed ? 0x20 : 0));
if (t < 30)
{
/* single octet */
out_Renamed.WriteByte((byte)(ccf | t));
}
else
{
/* multiple octet */
out_Renamed.WriteByte((byte)(ccf | 0x1F));
encodeTagInteger(t, out_Renamed);
}
}
/* Encoders for ASN.1 useful types
*/
/* Encoder for ASN.1 Identifier
*/
/// <summary> Encode an Asn1Identifier directly into the specified outputstream.</summary>
public void encode(Asn1Identifier id, System.IO.Stream out_Renamed)
{
int c = id.Asn1Class;
int t = id.Tag;
sbyte ccf = (sbyte)((c << 6) | (id.Constructed?0x20:0));
if (t < 30)
{
/* single octet */
out_Renamed.WriteByte((System.Byte)(ccf | t));
}
else
{
/* multiple octet */
out_Renamed.WriteByte((System.Byte)(ccf | 0x1F));
encodeTagInteger(t, out_Renamed);
}
return;
}
/// <summary>
/// Sets the identifier for this Asn1Object. This is helpful when
/// creating implicit Asn1Tagged types.
/// </summary>
/// <param name="id">
/// An Asn1Identifier object representing the CLASS,
/// FORM and TAG).
/// </param>
public virtual void SetIdentifier(Asn1Identifier id)
{
_id = id;
}
/// <summary> This thread decodes and processes RfcLdapMessage's from the server.
///
/// Note: This thread needs a graceful shutdown implementation.
/// </summary>
public virtual void Run()
{
System.String reason = "reader: thread stopping";
InterThreadException notify = null;
Message info = null;
System.IO.IOException ioex = null;
this.enclosingInstance.reader = SupportClass.ThreadClass.Current();
// Enclosing_Instance.reader = SupportClass.ThreadClass.Current();
// Console.WriteLine("Inside run:" + this.enclosingInstance.reader.Name);
try
{
for (; ; )
{
// -------------------------------------------------------
// Decode an RfcLdapMessage directly from the socket.
// -------------------------------------------------------
Asn1Identifier asn1ID;
System.IO.Stream myIn;
/* get current value of in, keep value consistant
* though the loop, i.e. even during shutdown
*/
myIn = this.enclosingInstance.in_Renamed;
if (myIn == null)
{
break;
}
asn1ID = new Asn1Identifier(myIn);
int tag = asn1ID.Tag;
if (asn1ID.Tag != Asn1Sequence.TAG)
{
continue; // loop looking for an RfcLdapMessage identifier
}
// Turn the message into an RfcMessage class
Asn1Length asn1Len = new Asn1Length(myIn);
RfcLdapMessage msg = new RfcLdapMessage(this.enclosingInstance.decoder, myIn, asn1Len.Length);
// ------------------------------------------------------------
// Process the decoded RfcLdapMessage.
// ------------------------------------------------------------
int msgId = msg.MessageID;
// Find the message which requested this response.
// It is possible to receive a response for a request which
// has been abandoned. If abandoned, throw it away
try
{
info = this.enclosingInstance.messages.findMessageById(msgId);
info.putReply(msg); // queue & wake up waiting thread
}
catch (System.FieldAccessException ex)
{
/*
* We get the NoSuchFieldException when we could not find
* a matching message id. First check to see if this is
* an unsolicited notification (msgID == 0). If it is not
* we throw it away. If it is we call any unsolicited
* listeners that might have been registered to listen for these
* messages.
*/
/* Note the location of this code. We could have required
* that message ID 0 be just like other message ID's but
* since message ID 0 has to be treated specially we have
* a separate check for message ID 0. Also note that
* this test is after the regular message list has been
* checked for. We could have always checked the list
* of messages after checking if this is an unsolicited
* notification but that would have inefficient as
* message ID 0 is a rare event (as of this time).
*/
if (msgId == 0)
{
// Notify any listeners that might have been registered
this.enclosingInstance.notifyAllUnsolicitedListeners(msg);
/*
* Was this a server shutdown unsolicited notification.
* IF so we quit. Actually calling the return will
* first transfer control to the finally clause which
* will do the necessary clean up.
*/
if (this.enclosingInstance.unsolSvrShutDnNotification)
{
notify = new InterThreadException(ExceptionMessages.SERVER_SHUTDOWN_REQ, new System.Object[]{this.enclosingInstance.host, this.enclosingInstance.port}, LdapException.CONNECT_ERROR, null, null);
return ;
}
}
else
{
}
}
if ((this.enclosingInstance.stopReaderMessageID == msgId) || (this.enclosingInstance.stopReaderMessageID == Novell.Directory.Ldap.Connection.STOP_READING))
{
// Stop the reader Thread.
return ;
}
}
}
catch (System.IO.IOException ioe)
{
ioex = ioe;
if ((this.enclosingInstance.stopReaderMessageID != Novell.Directory.Ldap.Connection.STOP_READING) && this.enclosingInstance.clientActive)
{
// Connection lost waiting for results from host:port
notify = new InterThreadException(ExceptionMessages.CONNECTION_WAIT, new System.Object[]{this.enclosingInstance.host, this.enclosingInstance.port}, LdapException.CONNECT_ERROR, ioe, info);
}
// The connection is no good, don't use it any more
this.enclosingInstance.in_Renamed = null;
this.enclosingInstance.out_Renamed = null;
}
finally
{
/*
* There can be four states that the reader can be in at this point:
* 1) We are starting TLS and will be restarting the reader
* after we have negotiated TLS.
* - Indicated by whether stopReaderMessageID does not
* equal CONTINUE_READING.
* - Don't call Shutdown.
* 2) We are stoping TLS and will be restarting after TLS is
* stopped.
* - Indicated by an IOException AND stopReaderMessageID equals
* STOP_READING - in which case notify will be null.
* - Don't call Shutdown
* 3) We receive a Server Shutdown notification.
* - Indicated by messageID equal to 0.
* - call Shutdown.
* 4) Another error occured
* - Indicated by an IOException AND notify is not NULL
* - call Shutdown.
*/
if ((!this.enclosingInstance.clientActive) || (notify != null))
{
//#3 & 4
this.enclosingInstance.shutdown(reason, 0, notify);
}
else
{
this.enclosingInstance.stopReaderMessageID = Novell.Directory.Ldap.Connection.CONTINUE_READING;
}
}
this.enclosingInstance.deadReaderException = ioex;
this.enclosingInstance.deadReader = this.enclosingInstance.reader;
this.enclosingInstance.reader = null;
return ;
}
protected Asn1Object(Asn1Identifier id)
{
_id = id;
}
internal Asn1Numeric(Asn1Identifier id, int value_Renamed) : base(id)
{
content = value_Renamed;
}
/// <summary>
/// Sets the identifier of the contained Asn1Object. We
/// override the parent method as the identifier of
/// an Asn1Choice depends on the type of the object
/// encoded by this Asn1Choice.
/// </summary>
public override void SetIdentifier(Asn1Identifier id)
{
ChoiceValue.SetIdentifier(id);
}
private void InitBlock()
{
asn1ID = new Asn1Identifier();
asn1Len = new Asn1Length();
}
/*
* Create a an Asn1 structured type with default size of 10
*
* @param id the Asn1Identifier containing the tag for this structured type
*
* @param content an array containing the content
*
* @param size the number of items of content in the array
*/
protected internal Asn1Structured(Asn1Identifier id, Asn1Object[] newContent, int size) : base(id)
{
content = newContent;
contentIndex = size;
}
internal Asn1Numeric(Asn1Identifier id, long value_Renamed):base(id)
{
content = (System.Int64) value_Renamed;
return ;
}
/*
* Create a an Asn1 structured type with the designated size
*
* @param id the Asn1Identifier containing the tag for this structured type
*
* @param size the size to allocate
*/
protected internal Asn1Structured(Asn1Identifier id, int size)
: base(id)
{
_content = new List <Asn1Object>(size);
}
/*
* Create a an Asn1 structured type with default size of 10
*
* @param id the Asn1Identifier containing the tag for this structured type
*
* @param content an array containing the content
*
* @param size the number of items of content in the array
*/
protected internal Asn1Structured(Asn1Identifier id, IList <Asn1Object> newContent)
: base(id)
{
_content = new List <Asn1Object>(newContent);
}
internal Asn1Numeric(Asn1Identifier id, long value_Renamed)
: base(id)
{
content = (long)value_Renamed;
}
/*
* Create a an Asn1 structured type with default size of 10
*
* @param id the Asn1Identifier containing the tag for this structured type
*
* @param content an array containing the content
*
* @param size the number of items of content in the array
*/
protected internal Asn1Structured(Asn1Identifier id, Asn1Object[] newContent, int size)
: base(id)
{
content = newContent;
contentIndex = size;
return ;
}
/*
* Create a an Asn1 structured type with the designated size
*
* @param id the Asn1Identifier containing the tag for this structured type
*
* @param size the size to allocate
*/
protected internal Asn1Structured(Asn1Identifier id, int size)
: base(id)
{
content = new Asn1Object[size];
return ;
}
/*
* Create a an Asn1 structured type with default size of 10
*
* @param the Asn1Identifier containing the tag for this structured type
*/
protected internal Asn1Structured(Asn1Identifier id)
: this(id, 10)
{
return ;
}
/* Constructors for Asn1Tagged
*/
/// <summary> Constructs an Asn1Tagged object using the provided
/// AN1Identifier and the Asn1Object.
///
/// The explicit flag defaults to true as per the spec.
/// </summary>
public Asn1Tagged(Asn1Identifier identifier, Asn1Object object_Renamed)
: this(identifier, object_Renamed, true)
{
}
/*
* Create a an Asn1 structured type with default size of 10
*
* @param the Asn1Identifier containing the tag for this structured type
*/
protected internal Asn1Structured(Asn1Identifier id) : this(id, 10)
{
}
/// <summary> Sets the identifier for this Asn1Object. This is helpful when
/// creating implicit Asn1Tagged types.
///
/// </summary>
/// <param name="id">An Asn1Identifier object representing the CLASS,
/// FORM and TAG)
/// </param>
public virtual void setIdentifier(Asn1Identifier id)
{
this.id = id;
return ;
}
internal Asn1Numeric(Asn1Identifier id, long value_Renamed) : base(id)
{
content = (System.Int64)value_Renamed;
return;
}
public Asn1Tagged(Asn1Decoder dec, System.IO.Stream in_Renamed, int len, Asn1Identifier identifier):base(identifier)
{
// If we are decoding an implicit tag, there is no way to know at this
// low level what the base type really is. We can place the content
// into an Asn1OctetString type and pass it back to the application who
// will be able to create the appropriate ASN.1 type for this tag.
content = new Asn1OctetString(dec, in_Renamed, len);
return ;
}
internal Asn1Numeric(Asn1Identifier id, long valueRenamed)
: base(id)
{
_content = valueRenamed;
}
public Asn1Object(Asn1Identifier id)
{
this.id = id;
return ;
}
private void InitBlock()
{
asn1ID = new Asn1Identifier();
asn1Len = new Asn1Length();
}
/// <summary> Sets the identifier of the contained Asn1Object. We
/// override the parent method as the identifier of
/// an Asn1Choice depends on the type of the object
/// encoded by this Asn1Choice.
/// </summary>
public override void setIdentifier(Asn1Identifier id)
{
content.setIdentifier(id);
return ;
}
/* Encoders for ASN.1 useful types
*/
/* Encoder for ASN.1 Identifier
*/
/// <summary> Encode an Asn1Identifier directly into the specified outputstream.</summary>
public void encode(Asn1Identifier id, System.IO.Stream out_Renamed)
{
int c = id.Asn1Class;
int t = id.Tag;
sbyte ccf = (sbyte) ((c << 6) | (id.Constructed?0x20:0));
if (t < 30)
{
/* single octet */
out_Renamed.WriteByte((System.Byte) (ccf | t));
}
else
{
/* multiple octet */
out_Renamed.WriteByte((System.Byte) (ccf | 0x1F));
encodeTagInteger(t, out_Renamed);
}
return ;
}
/* Constructors for Asn1Tagged
*/
/// <summary> Constructs an Asn1Tagged object using the provided
/// AN1Identifier and the Asn1Object.
///
/// The explicit flag defaults to true as per the spec.
/// </summary>
public Asn1Tagged(Asn1Identifier identifier, Asn1Object object_Renamed):this(identifier, object_Renamed, true)
{
return ;
}
public Asn1Object(Asn1Identifier id)
{
this.id = id;
}
/*
* Create a an Asn1 structured type with the designated size
*
* @param id the Asn1Identifier containing the tag for this structured type
*
* @param size the size to allocate
*/
protected internal Asn1Structured(Asn1Identifier id, int size) : base(id)
{
content = new Asn1Object[size];
}
/// <summary> Sets the identifier for this Asn1Object. This is helpful when
/// creating implicit Asn1Tagged types.
///
/// </summary>
/// <param name="id">An Asn1Identifier object representing the CLASS,
/// FORM and TAG)
/// </param>
public virtual void setIdentifier(Asn1Identifier id)
{
this.id = id;
}
/// <summary> Sets the identifier of the contained Asn1Object. We
/// override the parent method as the identifier of
/// an Asn1Choice depends on the type of the object
/// encoded by this Asn1Choice.
/// </summary>
public override void setIdentifier(Asn1Identifier id)
{
content.setIdentifier(id);
return;
}
internal Asn1Numeric(Asn1Identifier id, int value_Renamed) : base(id)
{
content = (Int64)value_Renamed;
return;
}
