Abstract: A flow setup table in a base station breakout component allows for servicing non-cacheable IP data flows at the breakout component without the need for network address translation. For each broken out IP flow at the breakout component, the flow setup table holds a mapping between tunnel IDs and the IP related information. The flow setup table data is sent to the breakout component at the gateway. The gateway breakout component uses the flow setup table to forward non-cacheable data requests to the internet and return data received from the internet back to the base station breakout component. The base station component then sends the non-cacheable data in the correct tunnel to the user equipment requesting the data.

Abstract: The invention relates to an arm rest arrangement for a seat, in particular for a vehicle seat, with an arm rest which is pivotably connected by means of a bearing axis to an arm rest support, wherein a latching and adjusting device is provided for setting an angle of inclination between the arm rest and the arm rest support in a usage position and for folding down the arm rest from the usage position into a non-usage position, wherein the latching and adjusting device is mounted so as to be rotatable in a rotary element within a housing of the armrest and the latching and adjusting device is mounted so as to be rotatable about its longitudinal axis (L) in the housing for setting of the angle of inclination.

Abstract: A method and system supports subscriber based IP data breakout at the edge of a mobile data network without monitoring the use of security keys or breaking into ciphered message exchanges. The system employs a first service mechanism operating at the edge of the mobile data network a second service mechanism operating at the core on the S11 interface. The second service mechanism at the core collects subscriber related data, subscriber identifiers and tunnel identifiers and sends this data to the first service mechanism. The second service mechanism at the core collects subscriber related data, subscriber identifiers and tunnel identifiers and sends this data to the first service mechanism. The first service mechanism uses the tunnel identifiers received from the second service mechanism to identify sessions and tunnels carrying subscriber dependent data packets (S1-U packets) in order to perform subscriber-based IP data breakout, offloading and optimization.

Abstract: A mobility event is supported on a flat or next generation mobile data networks with data breakout or offload at the edge of the mobile data network. Packet data is buffered while a complete set of the PDP context information is transferred from the source eNodeB to the target eNodeB and the mobile core network is updated with the information about the handover in a timely manner to prevent packet loss and thus provide a seamless user experience. The breakout system supports the PDP context transfer by shifting the end point of the TCP communication from the local breakout entity (MIOP@eNodeB) to the core breakout entity (MIOP@GW), transferring the TCP connection to the core breakout entity, and supporting the network initiated control flows in a way that is seamless from the perspective of the UE and the core network.

Abstract: A mobility event is supported on a flat or next generation mobile data networks with data breakout or offload at the edge of the mobile data network. Packet data is buffered while a complete set of the PDP context information is transferred from the source eNodeB to the target eNodeB and the mobile core network is updated with the information about the handover in a timely manner to prevent packet loss and thus provide a seamless user experience. The breakout system supports the PDP context transfer by shifting the end point of the TCP communication from the local breakout entity (MIOP@eNodeB) to the core breakout entity (MIOP@GW), transferring the TCP connection to the core breakout entity, and supporting the network initiated control flows in a way that is seamless from the perspective of the UE and the core network.

Abstract: Mobile network services are performed at the edge in a flat mobile data network in a way that is transparent to most of the existing equipment in the mobile data network to reduce the load and increase efficiency on the mobile data network by breaking out data at the edge based on specific IP data flows. The mobile data network includes a radio access network and a core network. A first service mechanism in the radio access network breaks out data coming from a basestation based on breakout conditions, and performs one or more mobile network services. The second service mechanism determines what traffic satisfies breakout authorization criteria and informs the first service mechanism. The message from the second service mechanism triggers the first service mechanism to perform IP flow based breakout. An overlay network allows the first and second mechanisms to communicate with each other.

Abstract: Mobile network services are performed at the edge in a flat mobile data network in a way that is transparent to most of the existing equipment in the mobile data network to reduce the load and increase efficiency on the mobile data network by breaking out data at the edge based on specific IP data flows. The mobile data network includes a radio access network and a core network. A first service mechanism in the radio access network breaks out data coming from a basestation based on breakout conditions, and performs one or more mobile network services. The second service mechanism determines what traffic satisfies breakout authorization criteria and informs the first service mechanism. The message from the second service mechanism triggers the first service mechanism to perform IP flow based breakout. An overlay network allows the first and second mechanisms to communicate with each other.

Abstract: The invention relates to a vehicle seat, in particular for utility vehicles, with a seat part, a backrest and a lower part, in relation to which an upper part carrying the seat part and the backrest is resiliently mounted, the seat part being rotatably mounted in relation to the upper part by means of a rotary device about a rotational axis, which extends in the height direction of the vehicle seat, for a rotary movement and being resiliently mounted for a horizontal spring movement by means of a horizontal spring device in at least one direction running perpendicularly to the rotational axis, preferably the transverse direction of the vehicle seat, wherein both the rotary device and the horizontal spring device can be locked and unlocked at the same time with respect to the movements carried out with them by means of a common switching element.

Abstract: Lawful interception (LI) is supported on a flat mobile data network with breakout services at the basestation. A first service mechanism at the basestation is prevented from breaking out services for subscribers that are part of LI. A second service mechanism in the core network maintains a subscriber list of subscribers that are subject to LI. In response to a PDP context activation by a subscriber on the list, the second service mechanism does not supply PDP context information to the first service mechanism for data breakout thus preventing breakout for the subscriber subject to lawful interception.

Abstract: A method and system supports subscriber based IP data breakout at the edge of a mobile data network without monitoring the use of security keys or breaking into ciphered message exchanges. The system employs a first service mechanism operating at the edge of the mobile data network a second service mechanism operating at the core on the S11 interface. The second service mechanism at the core collects subscriber related data, subscriber identifiers and tunnel identifiers and sends this data to the first service mechanism. The second service mechanism at the core collects subscriber related data, subscriber identifiers and tunnel identifiers and sends this data to the first service mechanism. The first service mechanism uses the tunnel identifiers received from the second service mechanism to identify sessions and tunnels carrying subscriber dependent data packets (S1-U packets) in order to perform subscriber-based IP data breakout, offloading and optimization.

Abstract: A TCP context is transferred to a Gi Optimizer to provide cooperative mobility management in a mobile data network with a breakout system. The breakout system includes an Iub Optimizer at the MIOP@NodeB, and the Gi Optimizer at the MIOP@Core. When a MIOP@NodeB detects a mobility event for a broken out user equipment (UE), the Iub optimizer in the MIOP@NodeB coordinates with the Gi optimizer to transfer the TCP/UDP connection established between the UE and the IuB Optimizer to the Gi Optimizer. After the transfer, the UE is served by the Gi Optimizer. The transfer of the TCP/UDP connection to the Gi optimizer may require tunnel stitching at the MIOP@RNC depending on the PDP context state and the RRC state of the UE.

Abstract: A method and system supports subscriber based IP data breakout at the edge of a mobile data network without monitoring the use of security keys or breaking into ciphered message exchanges. The system employs a first service mechanism operating at the edge of the mobile data network a second service mechanism operating at the core on the S11 interface. The second service mechanism at the core collects subscriber related data, subscriber identifiers and tunnel identifiers and sends this data to the first service mechanism. The second service mechanism at the core collects subscriber related data, subscriber identifiers and tunnel identifiers and sends this data to the first service mechanism. The first service mechanism uses the tunnel identifiers received from the second service mechanism to identify sessions and tunnels carrying subscriber dependent data packets (S1-U packets) in order to perform subscriber-based IP data breakout, offloading and optimization.

Abstract: A method and system supports subscriber based IP data breakout at the edge of a mobile data network without monitoring the use of security keys or breaking into ciphered message exchanges. The system employs a first service mechanism operating at the edge of the mobile data network a second service mechanism operating at the core on the S11 interface. The second service mechanism at the core collects subscriber related data, subscriber identifiers and tunnel identifiers and sends this data to the first service mechanism. The second service mechanism at the core collects subscriber related data, subscriber identifiers and tunnel identifiers and sends this data to the first service mechanism. The first service mechanism uses the tunnel identifiers received from the second service mechanism to identify sessions and tunnels carrying subscriber dependent data packets (S1-U packets) in order to perform subscriber-based IP data breakout, offloading and optimization.

Abstract: A vehicle seat (10) is provided having a vertically adjustable seat belt in order to secure a user of the vehicle seat (10). The vehicle seat (10) comprises a portion (20) for receiving a first end (33) of the seat belt (30). In this case the vehicle seat portion (20) comprises a cover (21) which covers the vehicle seat portion (20) towards the vehicle seat (10) and behind which are provided a first slot opening (22) for passing the seat belt (30) out of the interior of the vehicle seat portion (20) towards the exterior of the vehicle seat portion (20) and a second slot opening (23) for guiding a seat-belt vertical adjustment element (24) on the vehicle seat portion (20) between an upper end position (OE) of the seat belt (30) and a lower end position (UE) of the seat belt (30). The cover (21) descends obliquely downwards to an outer edge (K) of the vehicle seat (10), at which edge (K) the vehicle seat portion (20) is present.

Abstract: Lawful interception (LI) is supported on a flat mobile data network with breakout services at the basestation. A first service mechanism at the basestation is prevented from breaking out services for subscribers that are part of LI. A second service mechanism in the core network maintains a subscriber list of subscribers that are subject to LI. In response to a PDP context activation by a subscriber on the list, the second service mechanism does not supply PDP context information to the first service mechanism for data breakout thus preventing breakout for the subscriber subject to lawful interception.

Abstract: A flow setup table in a basestation breakout component allows for servicing non-cacheable IP data flows at the breakout component without the need for network address translation. For each broken out IP flow at the breakout component, the flow setup table holds a mapping between tunnel IDs and the IP related information. The flow setup table data is sent to the breakout component at the gateway. The gateway breakout component uses the flow setup table to forward non-cacheable data requests to the internet and return data received from the internet back to the basestation breakout component. The basestation component then sends the non-cacheable data in the correct tunnel to the user equipment requesting the data.

Abstract: The invention relates to an arm rest arrangement for a seat, in particular for a vehicle seat, with an arm rest which is pivotably connected by means of a bearing axis to an arm rest support, wherein a latching and adjusting device is provided for setting an angle of inclination between the arm rest and the arm rest support in a usage position and for folding down the arm rest from the usage position into a non-usage position, wherein the latching and adjusting device is mounted so as to be rotatable in a rotary element within a housing of the HI armrest and the latching and adjusting device is mounted so as to be rotatable about its longitudinal axis (L) in the housing for setting of the angle of inclination.

Abstract: A mobility event is supported on a flat or next generation mobile data networks with data breakout or offload at the edge of the mobile data network. Packet data is buffered while a complete set of the PDP context information is transferred from the source eNodeB to the target eNodeB and the mobile core network is updated with the information about the handover in a timely manner to prevent packet loss and thus provide a seamless user experience. The breakout system supports the PDP context transfer by shifting the end point of the TCP communication from the local breakout entity (MIOP@eNodeB) to the core breakout entity (MIOP@GW), transferring the TCP connection to the core breakout entity, and supporting the network initiated control flows in a way that is seamless from the perspective of the UE and the core network.

Abstract: A TCP context is transferred to a Gi Optimizer to provide cooperative mobility management in a mobile data network with a breakout system. The breakout system includes an Iub Optimizer at the MIOP@NodeB, and the Gi Optimizer at the MIOP@Core. When a MIOP@NodeB detects a mobility event for a broken out user equipment (UE), the Iub optimizer in the MIOP@NodeB coordinates with the Gi optimizer to transfer the TCP/UDP connection established between the UE and the IuB Optimizer to the Gi Optimizer. After the transfer, the UE is served by the Gi Optimizer. The transfer of the TCP/UDP connection to the Gi optimizer may require tunnel stitching at the MIOP@RNC depending on the PDP context state and the RRC state of the UE.