Abstract: In one embodiment, a mechanism for collocation in a JAVA Virtual Machine of JSLEE, SIP Servlets, and JAVA EE is disclosed. In one embodiment, a system includes an integrated application server including Java™ APIs for Intelligent Networks Service Logic Execution Environment (JSLEE), one or more Session Initiation Protocol (SIP) Servlets, and Java™ Enterprise Edition (J2EE). In addition, the system includes one or more resource adapters communicably coupled to the integrated application server and one or more management interfaces communicably coupled to the integrated application server.

Abstract: A mechanism for JRuby and SIP Servlets integration is disclosed. A method of embodiments of the invention includes deploying, by a Session Initiation Protocol (SIP) Servlets application server, a JRuby application to provide Voice over Internet Protocol (VoIP) services, and associating, by the SIP Servlets application server, a deployment file in a Ruby adaptation layer of a JAVA EE application server with the JRuby application, the deployment file defining a Session Initiation Protocol (SIP) Servlets application name in a SIP configuration section of the deployment file and a name of a class that handles SIP message.

Abstract: In one embodiment, a mechanism for improved integration of JSLEE and SIP Servlets in a JAVA virtual machine is disclosed. In one embodiment, a method includes sending an event received at a Session Initiation Protocol (SIP) Servlet to a Java™ APIs for Intelligent Networks Service Logic Execution Environment (JSLEE) container through a fireEvent method, wherein the SIP Servlet and the JSLEE container are integrated in a same JAVA virtual machine (JVM). The method further includes receiving at the SIP Servlet an object that includes a getResult method, processing by a JSLEE application in the JSLEE container the event to produce a result, returning by the JSLEE application the result through a setResult method, and obtaining by the SIP Servlet the result via the getResult method.

Abstract: A mechanism for JRuby and SIP Servlets integration is disclosed. A method of embodiments of the invention includes deploying, by a Session Initiation Protocol (SIP) Servlets application server, a JRuby application to provide Voice over Internet Protocol (VoIP) services, and associating, by the SIP Servlets application server, a deployment file in a Ruby adaptation layer of a JAVA EE application server with the JRuby application, the deployment file defining a Session Initiation Protocol (SIP) Servlets application name in a SIP configuration section of the deployment file and a name of a class that handles SIP message.

Abstract: In one embodiment, a mechanism for improved integration of JSLEE and SIP Servlets in a JAVA virtual machine is disclosed. In one embodiment, a method includes sending an event received at a Session Initiation Protocol (SIP) Servlet to a Java™ APIs for Intelligent Networks Service Logic Execution Environment (JSLEE) container through a fireEvent method, wherein the SIP Servlet and the JSLEE container are integrated in a same JAVA virtual machine (JVM). The method further includes receiving at the SIP Servlet an object that includes a getResult method, processing by a JSLEE application in the JSLEE container the event to produce a result, returning by the JSLEE application the result through a setResult method, and obtaining by the SIP Servlet the result via the getResult method.

Abstract: In one embodiment, a mechanism for collocation in a JAVA Virtual Machine of JSLEE, SIP Servlets, and JAVA EE is disclosed. In one embodiment, a system includes an integrated application server including Java™ APIs for Intelligent Networks Service Logic Execution Environment (JSLEE), one or more Session Initiation Protocol (SIP) Servlets, and Java™ Enterprise Edition (J2EE). In addition, the system includes one or more resource adapters communicably coupled to the integrated application server and one or more management interfaces communicably coupled to the integrated application server.

Abstract: The complete combustion of hot gases of low calorific power is effected by introducing the gases into a combustion chamber at a pressure close to atmospheric pressure and at a temperature of between 600.degree. and 900.degree. C, by introducing at burner level primary air to a maximum of 80% of the stoichiometric proportion, by supplying secondary air near the base of the flame in an excess relation to the stoichiometric amount so that the flame temperature is between 1,000.degree. and 1,300.degree. C and by discharging the combustion products from the combustion chamber by means of a chimney.

Abstract: The complete combustion of hot gases of low calorific power is effected by introducing the gases into a combustion chamber at a pressure close to atmospheric pressure and at a temperature of between 600.degree. and 900.degree. C, by introducing at burner level primary air to a maximum of 80% of the stoichiometric proportion, by supplying secondary air near the base of the flame in an excess relation to the stoichiometric amount so that the flame temperature is between 1,000.degree. and 1,300.degree. C and by discharging the combustion products from the combustion chamber by means of a chimney.

Abstract: Pulverulent coke and granular reactive coke are produced, respectively, from fines and grains of coal of grades which are not normally usable for coking, containing more than 15% of volatile matter and having a swelling index between 1 and 8, by carbonization between 600.degree. C and 1100.degree. C, wherein combustion air in excess of that which would be necessary to bring the coke to the desired coking temperature is introduced into a slightly inclined rotary tubular oven through which the coal passes during its conversion into coke, the air introduction being effected between the coke outlet and the zone in which the product reaches its maximum temperature and being controlled so that the temperature of the gases issuing from the oven is kept above 600.degree. C. At least 60% of the air is preferably introduced at the downstream end of the oven, and further air may be introduced at intermediate points along the oven length.