Abstract: There is provided a method and system for optimizing delivery of data to a mobile device over a network. According to one embodiment, the invention includes a communication stack, such as a TCP/IP stack, which includes an application protocol interface (API) between an application layer and a transport layer. According to this embodiment, the method includes receiving delivery optimization information; determining the priority of the data using the delivery optimization information; providing the priority of the data to a physical layer in the communication stack; and delivering the data to the mobile device based on the priority.

Abstract: There is provided a method and system for optimizing delivery of data to a mobile device over a network. According to one embodiment, the invention includes a communication stack, such as a TCP/IP stack, which includes an application protocol interface (API) between an application layer and a transport layer. According to this embodiment, the method includes receiving delivery optimization information; determining the priority of the data using the delivery optimization information; providing the priority of the data to a physical layer in the communication stack; and delivering the data to the mobile device based on the priority.

Abstract: There is provided a method and system for optimizing delivery of data to a mobile device over a network. According to one embodiment, the invention includes a communication stack, such as a TCP/IP stack, which includes an application protocol interface (API) between an application layer and a transport layer. According to this embodiment, the method includes receiving delivery optimization information; determining the priority of the data using the delivery optimization information; providing the priority of the data to a physical layer in the communication stack; and delivering the data to the mobile device based on the priority.

Abstract: There is provided a method and system for optimizing delivery of data to a mobile device over a network. According to one embodiment, the invention includes a communication stack, such as a TCP/IP stack, which includes an application protocol interface (API) between an application layer and a transport layer. According to this embodiment, the method includes receiving delivery optimization information; determining the priority of the data using the delivery optimization information; providing the priority of the data to a physical layer in the communication stack; and delivering the data to the mobile device based on the priority.

Abstract: There is provided a method and system for optimizing delivery of data to a mobile device over a network. According to one embodiment, the invention includes a communication stack, such as a TCP/IP stack, which includes an application protocol interface (API) between an application layer and a transport layer. According to this embodiment, the method includes receiving delivery optimization information; determining the priority of the data using the delivery optimization information; providing the priority of the data to a physical layer in the communication stack; and delivering the data to the mobile device based on the priority.

Abstract: There is provided a method and system for optimizing delivery of data to a mobile device over a network. According to one embodiment, the invention includes a communication stack, such as a TCP/IP stack, which includes an application protocol interface (API) between an application layer and a transport layer. According to this embodiment, the method includes receiving delivery optimization information; determining the priority of the data using the delivery optimization information; providing the priority of the data to a physical layer in the communication stack; and delivering the data to the mobile device based on the priority.

Abstract: For use in a wireless network, a base station that reduces the call set-up time for a time-sensitive application. The base station comprises a message controller for receiving an incoming control message that initiates the time-sensitive application in a mobile station. In lieu of a conventional page message, the message controller transmits a short data burst message to the mobile station to initiate the time-sensitive application. The short data burst message is transmitted in a forward control channel. The mobile station completes the set-up by transmitting back an L2 Acknowledgment message in lieu of a conventional page response message.

Abstract: A system for providing architecture and signaling, by which a mobile communications device—active within a WLAN environment—may be effectively and efficiently interfaced with a CDMA2000 network to provide cooperative and concurrent VoIP and over-the-air (OTA) communications, is disclosed. A wireless communications system comprises a mobile station, operating in a wireless LAN environment. The mobile station access the Internet through a wireless LAN access point. The area is also provided service by a CDMA2000-based over-the-air network. A provisioning server, within the CDMA2000-based network, is accessible via the Internet. A mobile switching center is also within the CDMA2000-based network. An interface construct is communicatively coupled to the mobile switching center and to the wireless LAN, and is adapted to facilitate call traffic between the CDMA2000 network and the mobile station over the wireless LAN.

Abstract: Methods and systems for allocating bandwidth and performing soft handoffs in multi-hop cellular communication networks are disclosed.

Abstract: A system for wireless communication is provided that includes a mobile switching center and a communication component, such as a base station or an access network. The mobile switching center is operable to transmit a message identifying a mobile station to be released. The communications component is operable to receive the message from the mobile switching center. The communications component is further operable to identify and release the mobile station based on the message.

Abstract: A system for providing optimized utilization and efficiency of traffic channels in Evolution Data-Only (EVDO) based communications systems is disclosed. A given communication channel has a unique first parameter associated with it. A plurality of second parameters, each associated with a specific traffic function, is provided. An individual traffic element is assigned a first and second parameter, indicating its channel allocation and traffic function, respectively. Other traffic elements are also assigned a first and second parameter, and may be allowed concurrent access to a given communication channel if their second parameter is different from the second parameter of the individual traffic element. Access to communication channels may also be prioritized based upon a traffic element's assigned second parameter.

Abstract: A system for providing parallel, concurrent transmission of multiple DRC elements is disclosed. An assignment element assigns, for each access terminal in an access network, two DRC-related parameters. A first parameter is assigned to uniquely identify a given access terminal. A second parameter is assigned to identify DRC traffic for that access terminal. An allocation message, such as a traffic channel allocation message, is modified to communicate the parameters from the access network to an access terminal. The access terminal processes its DRC traffic with both parameters, enabling the access network to identify its transmissions regardless of time multiplexing.

Abstract: A multi-hop wireless communication network is disclosed, which includes a fixed communication unit, at least one mobile communication unit, and a relay communication unit. The relay communication unit is operable to relay a plurality of signals bi-directionally between the fixed communication unit and the at least one mobile communuication unit, by receiving a first signal on at least one of a dedicated sub-carrier and a dynamic sub-carrier in a first downlink channel segment from the fixed communication unit, and transmitting the received first signal to the at least one mobile communication unit on a dynamic sub-carrier in a second downlink channel segment.

Abstract: A base station for use in a wireless network capable of communicating with a plurality of mobile stations in a coverage area of the wireless network. The base station comprises a controller for controlling use of an Auxiliary Pilot channel. The controller causes the base station to i) terminate use of the Auxiliary Pilot channel in a first mode, ii) transmit data traffic to a first mobile station using the Auxiliary Pilot channel in a second mode, and iii) transmit data traffic to the first mobile station using a traffic channel phase-matched to a wide sector pilot channel signal in a third mode.

Abstract: A method for origination signaling in a wireless network is provided. The method includes receiving a delayed feature request at an input device. The delayed feature request is directly provided from the input device to an override chip. An invitation message that is operable to request establishment of a delayed feature session is generated in the override chip based on the delayed feature request. The invitation message is sent to a base station.

Abstract: A fast paging method of a mobile station (MS), comprising the steps of: receiving from a base station (BS) a page message containing information related to a requested period of a slot cycle and a information related to a maximum of an end time of maintaining the period of the slot cycle in an idle state; and changing the period of the slot cycle based on the information related to the requested period of the slot cycle and maintaining the changed period of the slot cycle until the end time based on the information related to the maximum of the end time; and monitoring a paging channel at the changed period of the slot cycle.

Abstract: A mobile station capable of reactivating at least a dormant first data session and a dormant second data session associated with a first base station of a wireless network. The mobile station transmits to the first base station an Origination message comprising: i) a first Data Ready to Send (DRS) field indicating to the first base station that the dormant first data session is being reactivated; and ii) a second Data Ready to Send (DRS) field indicating that the dormant second data session is being reactivated.

Abstract: An apparatus and method for QoS management including a wireless network having a plurality of base stations capable of communicating with a plurality of mobile stations in a coverage area of the wireless network, and having a packet classification element, configured to classify packets to be delivered to a mobile station; an information processing element, configured to process the packets from the packet classification element; and an information scheduler element, configured to coordinate delivery of the packets to the mobile station.

Abstract: A base station for communicating with mobile stations in a coverage area of a wireless network. The base station comprises a first transmit antenna, a second transmit antenna, and an RF transceiver for generating an outgoing RF signal to be transmitted via the first and second transmit antennas to the mobile stations. The base station also comprises a switch coupling the RF transceiver to the first and second transmit antennas. The switch alternately directs the outgoing RF signal to the first transmit antenna during a first portion of a forward channel data frame and directs the outgoing RF signal to the second transmit antenna during a remaining portion of the forward channel data frame.

Abstract: A wireless network base station capable of canceling interference caused by a dominant interferer signal from a mobile station. The base station comprises down-converts an RF to a down-converted signal, r(n). K complex PN demodulators multiply the down-converted complex r(n) signal by PN code sequences associated with each of the K mobile stations to produce K chip streams. K Walsh code demodulators multiply each of the K chip streams by a Walsh code associated with a mobile stations to produce K raw user signals. K subtractors subtract a first estimated interference signal associated with the dominant interferer signal from the K raw user signals to produce K estimated user signals. A detector receives the K estimated user signals and produces a detected user signal for each of the mobile stations. An interference estimator then determines which detected user signal is the dominant interferer signal.