Abstract: A device receives information regarding allocation of an enhanced dedicated channel radio network temporary identifier (E-RNTI) to user equipment in a cell forward access channel (Cell_FACH) state, and receives information regarding a state change associated with the user equipment. The device determines that the E-RNTI can be released based on the state change, and provides, to another device, a request to release the E-RNTI in response to the state change and so that the E-RNTI can be used by other user equipment.

Abstract: According to an example method performed in a High Speed Downlink Packet Access (HSDPA) environment, a first device generates a High Speed Downlink Shared Channel (HS-DSCH) data frame that includes a plurality of blocks of packet data units. A first block of the plurality of blocks includes packet data units of a first length, and a second block of the plurality of blocks includes packet data units of a different, second length. The first device transfers the HS-DSCH data frame to a second device. The HS-DSCH data frame further includes, for each block of the plurality of blocks, a first information element that indicates a length of the one or more packet data units in the each block, and a second information element that indicates a quantity of packet data units in the each block.

Abstract: A device receives information regarding allocation of an enhanced dedicated channel radio network temporary identifier (E-RNTI) to user equipment in a cell forward access channel (Cell_FACH) state, and receives information regarding a state change associated with the user equipment. The device determines that the E-RNTI can be released based on the state change, and provides, to another device, a request to release the E-RNTI in response to the state change and so that the E-RNTI can be used by other user equipment.

Abstract: The invention relates to a radio base station (13) for handling Outer Loop Power Control of a user equipment (12) in a radio communications network of a multiple cell (10,11) High Speed Uplink Packet Access configuration: The user equipment (12) is connected to at least two cells (10,11) using at least two carriers, one cell per carrier, wherein the radio base station (13) reports number of hybrid automatic repeat requests of the two or more carriers to a network control node (14). The radio base station (13) and the network control node (14) are comprised in the radio communications network. The radio base station determines (401) a number of hybrid automatic repeat requests over a first carrier of the at least two or more carriers, and signals (402) a user plane frame to the network control node (14).

Abstract: A device receives information regarding allocation of an enhanced dedicated channel radio network temporary identifier (E-RNTI) to user equipment in a cell forward access channel (Cell_FACH) state, and receives information regarding a state change associated with the user equipment. The device determines that the E-RNTI can be released based on the state change, and provides, to another device, a request to release the E-RNTI in response to the state change and so that the E-RNTI can be used by other user equipment.

Abstract: A method of operating a telecommunications node (28) through which packets of differing priority are conveyed comprises receiving plural data packets from a source external (26) to the node, the plural data packets including both ordinary packets and a priority packet; and storing the plural data packets in a queue structure (36) in order of arrival so that the priority packet is read out of the queue structure before the ordinary packets are read out of the queue structure (36), thereby expediting output of the priority packet from the node relative to the ordinary packets.

Abstract: A device receives information regarding allocation of an enhanced dedicated channel radio network temporary identifier (E-RNTI) to user equipment in a cell forward access channel (Cell_FACH) state, and receives information regarding a state change associated with the user equipment. The device determines that the E-RNTI can be released based on the state change, and provides, to another device, a request to release the E-RNTI in response to the state change and so that the E-RNTI can be used by other user equipment.

Abstract: A device receives information regarding allocation of an enhanced dedicated channel radio network temporary identifier (E-RNTI) to user equipment in a cell forward access channel (Cell_FACH) state, and receives information regarding a state change associated with the user equipment. The device determines that the E-RNTI can be released based on the state change, and provides, to another device, a request to release the E-RNTI in response to the state change and so that the E-RNTI can be used by other user equipment.

Abstract: In a flat Radio Access Network (RAN) architecture, each base station (16) shares Multimedia Broadcast Multicast Services (MBMS) control plane information with its neighboring base stations (16), by sharing with neighboring base stations (16) the same control plane information that the base station (16) transmits via its air interface (24). For example, in a Wideband CDMA embodiment, where each base station (16) in a flat WCDMA RAN (12) is referred to as a NodeB÷, one NodeB÷ shares MBMS control plane information with one or more neighboring NodeB+s. Such sharing allows a given base station (16-1) not only to broadcast MBMS configuration information for its own cells (18-1), but also to broadcast such information for one or more neighboring cells (18-2, 18-3) that operate under control of one or more neighboring base stations (16-2, 16-3).

Abstract: According to an example method performed in a High Speed Downlink Packet Access (HSDPA) environment, a first device generates a High Speed Downlink Shared Channel (HS-DSCH) data frame that includes a plurality of blocks of packet data units. A first block of the plurality of blocks includes packet data units of a first length, and a second block of the plurality of blocks includes packet data units of a different, second length. The first device transfers the HS-DSCH data frame to a second device. The HS-DSCH data frame further includes, for each block of the plurality of blocks, a first information element that indicates a length of the one or more packet data units in the each block, and a second information element that indicates a quantity of packet data units in the each block.

Abstract: A method of operating a telecommunications node (28) through which packets of differing priority are conveyed comprises receiving plural data packets from a source external (26) to the node, the plural data packets including both ordinary packets and a priority packet; and storing the plural data packets in a queue structure (36) in order of arrival so that the priority packet is read out of the queue structure before the ordinary packets are read out of the queue structure (36), thereby expediting output of the priority packet from the node relative to the ordinary packets.

Abstract: A first device (124) in a High Speed Downlink Packet Access environment (100) may generate a High Speed Downlink Shared Channel data frame (700, 730, 735, 750) that includes a group of packet data units, where a first packet data unit of the group of packet data units is of a different length than a second packet data unit of the group of packet data units. The first device (124) may further transfer the High Speed Downlink Shared Channel data frame (700, 730, 735, 750) to a second device (122).

Abstract: A method of operating a telecommunications node (28) through which packets of differing priority are conveyed comprises receiving plural data packets from a source external (26) to the node, the plural data packets including both ordinary packets and a priority packet; and storing the plural data packets in a queue structure (36) in order of arrival so that the priority packet is read out of the queue structure before the ordinary packets are read out of the queue structure (36), thereby expediting output of the priority packet from the node relative to the ordinary packets.

Abstract: A device (124) receives information regarding allocation of an enhanced dedicated channel radio network temporary identifier (E-RNTI) (460) to user equipment (110) in a cell forward access channel (Cell_FACH) state, and receives information regarding a state change (520) associated with the user equipment (110). The device (124) determines that the E-RNTI (460) can be released based on the state change (520), and provides, to another device (122), a request (530) to release the E-RNTI (460) in response to the state change (520) and so that the E-RNTI (460) can be used by other user equipment (110).

Abstract: A method of operating a telecommunications node (28) through which packets of differing priority are conveyed comprises receiving plural data packets from a source external (26) to the node, the plural data packets including both ordinary packets and a priority packet; and storing the plural data packets in a queue structure (36) in order of arrival so that the priority packet is read out of the queue structure before the ordinary packets are read out of the queue structure (36), thereby expediting output of the priority packet from the node relative to the ordinary packets.

Abstract: The invention relates to a radio base station (13) for handling Outer Loop Power Control of a user equipment (12) in a radio communications network of a multiple cell (10,11) High Speed Uplink Packet Access configuration: The user equipment (12) is connected to at least two cells (10,11) using at least two carriers, one cell per carrier, wherein the radio base station (13) reports number of hybrid automatic repeat requests of the two or more carriers to a network control node (14). The radio base station (13) and the network control node (14) are comprised in the radio communications network. The radio base station determines (401) a number of hybrid automatic repeat requests over a first carrier of the at least two or more carriers, and signals (402) a user plane frame to the network control node (14).

Abstract: A device (124) receives information regarding allocation of an enhanced dedicated channel radio network temporary identifier (E-RNTI) (460) to user equipment (110) in a cell forward access channel (Cell_FACH) state, and receives information regarding a state change (520) associated with the user equipment (110). The device (124) determines that the E-RNTI (460) can be released based on the state change (520), and provides, to another device (122), a request (530) to release the E-RNTI (460) in response to the state change (520) and so that the E-RNTI (460) can be used by other user equipment (110).

Abstract: In a flat Radio Access Network (RAN) architecture, each base station (16) shares Multimedia Broadcast Multicast Services (MBMS) control plane information with its neighboring base stations (16), by sharing with neighboring base stations (16) the same control plane information that the base station (16) transmits via its air interface (24). For example, in a Wideband CDMA embodiment, where each base station (16) in a flat WCDMA RAN (12) is referred to as a NodeB÷, one NodeB÷ shares MBMS control plane information with one or more neighboring NodeB+s. Such sharing allows a given base station (16-1) not only to broadcast MBMS configuration information for its own cells (18-1), but also to broadcast such information for one or more neighboring cells (18-2, 18-3) that operate under control of one or more neighboring base stations (16-2, 16-3).

Abstract: A first device (124) in a High Speed Downlink Packet Access environment (100) may generate a High Speed Down-link Shared Channel data frame (700, 730, 735, 750) that includes a group of packet data units, where a first packet data unit of the group of packet data units is of a different length than a second packet data unit of the group of packet data units. The first device (124) may further transfer the High Speed Downlink Shared Channel data frame (700, 730, 735, 750) to a second device (122).

Abstract: The present invention provides a mechanism for coordinating charging for a multimedia session between a mobile terminal and a remote host on both an application/session level and on an IP/access bearer level. The multimedia session is established over a radio access network via a packet-switched access network coupled to a multimedia system. The multimedia system has one or more multimedia servers for providing multimedia services for multimedia sessions. A token associated with the multimedia session is generated and used to correlate session charges for operations performed in the packet-switched access network and for operations performed in the multimedia system.