Examples of SipStack

javax.sip.SipStack

This interface represents the management interface of a SIP stack implementing this specification and as such is the interface that defines the management/architectural view of the SIP stack. It defines the methods required to represent and provision a proprietary SIP protocol stack.

This SipStack interface defines the methods that are be used by an application implementing the {@link javax.sip.SipListener} interface tocontrol the architecture and setup of the SIP stack. These methods include:

Creation/deletion of {@link javax.sip.SipProvider}'s that represent messaging objects that can be used by an application to send {@link javax.sip.message.Request}and {@link javax.sip.message.Response}messages statelessly or statefully via Client and Server transactions.
Creation/deletion of {@link javax.sip.ListeningPoint}'s that represent different ports and transports that a SipProvider can use to send and receive messages.

Architecture:
This specification mandates a one-to-many relationship between a SipStack and a SipProvider. There is a one-to-many relationship between a SipStack and a ListeningPoint.

SipStack Creation
An application must create a SipStack by invoking the {@link SipFactory#createSipStack(Properties)}method, ensuring the {@link SipFactory#setPathName(String)}is set. Following the naming convention defined in {@link javax.sip.SipFactory}, the implementation of the SipStack interface must be called SipStackImpl. This specification also defines a stack configuration mechanism using java.util.Properties, therefore this constructor must also accept a properties argument:

public SipStackImpl(Properties properties) {}

The following table documents the static configuration properties which can be set for an implementation of a SipStack. This specification doesn't preclude additional values within a configuration properties object if understood by the underlying implementation. In order to change these properties after a SipStack has been initialized the SipStack must be deleted and recreated:

SipStack Property	Description
javax.sip.IP_ADDRESS	Deprecated v1.2. It is recommended in this specification that the IP Address should be set using the enhanced ListeningPoint architecture, therefore this property is no longer mandatory. When this parameter is specified as null, a singleton stack instance will be created and returned by the SipFactory and the IP Address attributes can be managed via the {@link SipStack#createListeningPoint(String,int,String)} method. For backwards compatability if this flag is set the SipFactory will return a new SipStack instance each time a SipStack is created with a new IP Address. This configuration parameter will become the default IP address of the SipStack. The SIP Factory will return any any existing instance of SipStack that already exist for this IP Address.
javax.sip.STACK_NAME	Sets a user friendly name to identify the underlying stack implementation to the property value i.e. NISTv1.2. The stack name property should contain no spaces. This property is mandatory.
javax.sip.OUTBOUND_PROXY	Sets the outbound proxy of the SIP Stack. The fromat for this string is "ipaddress:port/transport" i.e. 129.1.22.333:5060/UDP. This property is optional.
javax.sip.ROUTER_PATH	Sets the fully qualified classpath to the application supplied Router object that determines how to route messages when the stack cannot make a routing decision ( ie. non-sip URIs). In version 1.2 of this specification, out of Dialog SIP URIs are routed by the Routing algorithm defined in RFC 3261 which is implemented internally by the stack provided that javax.sip.USE_ROUTER_FOR_ALL_URIS is set to false. In this case, the installed Router object is consulted for routing decisions pertaining to non-SIP URIs. An application defined Router object must implement the javax.sip.Router interface. This property is optional.
javax.sip.EXTENSION_METHODS	This configuration value informs the underlying implementation of supported extension methods that create new dialog's. This list must not include methods that are natively supported by this specification such as INVITE, SUBSCRIBE and REFER. This configuration flag should only be used for dialog creating extension methods, other extension methods that don't create dialogs can be used using the method parameter on Request assuming the implementation understands the method. If more than one method is supported in this property each extension should be seprated with a colon for example "FOO:BAR". This property is optional.
javax.sip.RETRANSMISSION_FILTER	Deprecated v1.2. Applications can request retransmission alerts from the {@link ServerTransaction#enableRetransmissionAlerts()}. The default retransmission behaviour of this specification is dependent on the application core and is defined as follows: User Agent Client: Retransmissions of ACK Requests are the responsibility of the application. All other retansmissions are handled by the SipProvider. User Agent Server: Retransmissions of 1xx, 2xx Responses are the responsibility of the application. All other retansmissions are handled by the SipProvider. Stateful Proxy: As stateful proxies have no Invite transactions all retransmissions are handled by the SipProvider. Stateless Proxy: As stateless proxies are not transactional all retransmissions are the responsibility of the application and will not be handled the SipProvider. This filter can be viewed as a helper function for User Agents that can be set by an application to prevent the application from handling retransmission of ACK Requests, 1xx and 2xx Responses for INVITE transactions, i.e. the SipProvider will handle the retransmissions. This utility is useful for hiding protocol retransmission semantics from higher level programming environments. The acceptable values are ON/OFF. This property is optional, therefore if not supplied the default is OFF.
javax.sip.AUTOMATIC_DIALOG_SUPPORT	This property specifies the defined values 'ON' and 'OFF'. The default value is 'ON'. The default behavior represents a common mode of stack operation and allows the construction of simple user agents. This property is optional. This is summarized as: A dialog gets created on a dialog creating transaction. The first respose having both a From and a To tag creates the transaction. The first 2xx response to the transaction will drive the dialog to the CONFIRMED state. The ability to turn of dialog support is motivated by dialog free servers (such as proxy servers) that do not want to pay the overhead of the dialog layer and user agents that may want to create multiple dialogs for a single INVITE (as a result of forking by proxy servers). The following behavior is defined when the configuration parameter is set to 'OFF'. The application is responsible to create the Dialog if desired. The application may create a Dialog and associate it with a response (provisional or final) of a dialog creating request. Since v1.2.
javax.sip.FORKABLE_EVENTS	Comma separated list of events for which the implementation should expect forked SUBSCRIBE dialogs. Each element of this list must have the syntax packagename.eventname This configuration parameter is provided in order to support the following behavior ( defined in RFC 3265): Successful SUBSCRIBE requests will normally receive only one 200-class response; however, due to forking, the subscription may have been accepted by multiple nodes. The subscriber MUST therefore be prepared to receive NOTIFY requests with "From:" tags which differ from the "To:" tag received in the SUBSCRIBE 200-class response. If multiple NOTIFY messages are received in different dialogs in response to a single SUBSCRIBE message, each dialog represents a different destination to which the SUBSCRIBE request was forked. Each event package MUST specify whether forked SUBSCRIBE requests are allowed to install multiple subscriptions.If such behavior is not allowed, the first potential dialog-establishing message will create a dialog. All subsequent NOTIFY messages which correspond to the SUBSCRIBE message (i.e., match "To","From", "From" header "tag" parameter, "Call-ID", "CSeq", "Event", and "Event" header "id" parameter) but which do not match the dialog would be rejected with a 481 response. This property is optional. Since v1.2
javax.sip.USE_ROUTER_FOR_ALL_URIS	If set to true then the application installed Router is consulted for ALL routing decisions (ie. both out of dialog SIP and non-SIP request URI's -- identitcal to the behavior supported in v1.1 of this specification). If set to false the user installed router will only be consulted for routing of Non-SIP URIs. Implementations may thus provide support for sophisticated operations such as DNS lookup for SIP URI's using the proceedures defined in RFC 3263 (support for RFC 3263 is not mandatory for this specification). This property is optional. The default value for this parameter is true. Since v1.2.

@see SipFactory @see SipProvider @author BEA Systems, NIST @version 1.2

org.cafesip.sipunit.SipStack

Examples of javax.sip.SipStack

  }


  public ViaHeader createLocalViaHeader() throws ParseException,
      InvalidArgumentException {
    // First get the sip stack from the sip provider
    SipStack sipStack = sipProvider.getSipStack();
    // Get the host name of this listening point
    final String host = sipProvider.getListeningPoints()[0].getIPAddress();
    // Get the port
    final int port = sipProvider.getListeningPoints()[0].getPort();
    // Get the transport

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Examples of javax.sip.SipStack

     
        try {
            headerFactory = protocolObjects.headerFactory;
            addressFactory = protocolObjects.addressFactory;
            messageFactory = protocolObjects.messageFactory;
            SipStack sipStack = protocolObjects.sipStack;
            ListeningPoint lp1 = sipStack.createListeningPoint("127.0.0.1", port1, "udp");
            ListeningPoint lp2 = sipStack.createListeningPoint("127.0.0.1", port2, "udp");
            SipProvider sp1 = sipStack.createSipProvider(lp1);
            SipProvider sp2 = sipStack.createSipProvider(lp2);
            this.listeningPoints[0] = lp1;
            this.listeningPoints[1] = lp2;
            this.providers[0] = sp1;
            this.providers[1] = sp2;
            sp1.addSipListener(this);

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Examples of javax.sip.SipStack

     
        try {
            headerFactory = protocolObjects.headerFactory;
            addressFactory = protocolObjects.addressFactory;
            messageFactory = protocolObjects.messageFactory;
            SipStack sipStack = protocolObjects.sipStack;
            ListeningPoint lp1 = sipStack.createListeningPoint("127.0.0.1", port1, "udp");
            ListeningPoint lp2 = sipStack.createListeningPoint("127.0.0.1", port2, "udp");
            SipProvider sp1 = sipStack.createSipProvider(lp1);
            SipProvider sp2 = sipStack.createSipProvider(lp2);
            this.listeningPoints[0] = lp1;
            this.listeningPoints[1] = lp2;
            this.providers[0] = sp1;
            this.providers[1] = sp2;
            sp1.addSipListener(this);

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Examples of org.cafesip.sipunit.SipStack

    }
  }


  public void setUp() throws Exception
  {
    _sipStack = new SipStack(getProtocol(), getLocalPort(), (Properties) _properties.clone());
    SipStack.setTraceEnabled(_properties.getProperty("sipunit.trace").equalsIgnoreCase("true"));
    _alicePhone =  _sipStack.createSipPhone(getRemoteHost(), getProtocol(),
        getRemotePort(), getAliceUri());
    if (__headerFactory == null) 
    {

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