Abstract: Pursuant to at least some embodiments, the present invention relates to a method that includes equipping a peripheral device with an RFID tag. The RFID tag includes a memory device configured for electronically storing information, an RF receiver configured for receiving an interrogation signal, and an RF transmitter operatively coupled to the RF receiver and the memory device. The method further includes configuring the RF transmitter for: (a) modulating an RF carrier with the electronically stored information from the memory device, and (b) transmitting the modulated RF carrier, in response to the RF receiver receiving the interrogation signal; and displaying or outputting a message on the peripheral device using the received interrogation signal.

Abstract: A mobile station in a wireless communication network is disclosed. The mobile station includes a transceiver coupled to a processor configured to perform measurements of signals of one or more cells of a wireless communication system during a first set of subframes, to cause the transceiver to transmit a measurement report including at least the measurements of signals of the one or more cells, and to indicate that the measurements of the one or more cells were performed during the first set of subframes.

Abstract: A method and apparatus for wireless communication device connectivity management includes receiving one or more metrics from at least two members of a group whose members are wireless communication devices. The members of the group have agreed to share resources within the group and have their wireless connections controlled by a wireless connectivity entity. The method and apparatus also includes managing the wireless connections of the at least two members by the connectivity management entity, based on the one or more metrics, to share resources between the at least two members.

Abstract: A method of operating a wireless ad hoc network includes configuring an intermediate device with a first linear network code corresponding to a first source device and a second linear network code corresponding to a second source device. The intermediate device is on communication paths from the first source device and the second source device to a plurality of destination devices. The intermediate device receives packet data from either the first source device or from the second source device, and determines whether to apply the first linear network code or the second linear network code to the packet data. The intermediate device generates outgoing packet data and sends the packet data to at least one destination device of the plurality of destination devices using either the first linear network code or the second linear network code.

Abstract: A method of setting up a wireless ad hoc network includes constructing an initial network graph by a source device. The network graph represents the source device, at least one intermediate device, and at least one communication path between the source device and the intermediate device. The initial network graph is sent from the source device to the intermediate device along with an update request. The source device receives a second network graph from the intermediate device in response to sending the initial network graph, and determines an updated network graph by performing a union of the initial network graph and the second network graph. The process is performed by each intermediate device required to reach a destination device.

Abstract: User Equipments (UEs) may be assigned a set of aggregated component carriers for downlink carrier aggregation and/or carrier selection. Some UEs may be incapable of transmitting uplink signals over all component carriers in their assigned set of aggregated component carriers. In such scenarios, a UE may need to perform SRS switching in order to transmit SRS symbols over all of the component carriers. Embodiments of this disclosure provide various techniques for facilitating SRS switching. For example, a radio resource control (RRC) message may be used to signal a periodic SRS configuration parameter. As another example, a downlink control indication (DCI) message may be used to signal an aperiodic SRS configuration parameter. Many other examples are also provided.

Abstract: System and method embodiments for auxiliary content delivery are disclosed. In an embodiment, a method in a transmission point (TP) for auxiliary content delivery includes determining a mobile wireless device capable of auxiliary content delivery to an end device according to predicted movement of the mobile wireless device with respect to the end device. The method also includes encoding content data into a plurality of content data packets such that the content data is recoverable by the end device from a subset of the plurality of content data packets. The method also includes transmitting control data and one or more of the plurality of content data packets to the mobile wireless device when the mobile wireless device is within a first proximity of the TP. The control data provides to the wireless device scheduling information for the retransmission of the content data packets to the end device.

Abstract: Disclosed are methods for delivering data (212) to a wireless station (102). An access point (104), or any other suitable device or system, receives a plurality of association requests (204) from a plurality of wireless stations (102) and transmits a different association identifier (208) to each of the plurality of wireless stations (102). The access point (104) buffers data (212) for a subset of the wireless stations (102). If the number of wireless stations (102) with buffered data (212) at the access point (104) is less than a threshold, then the access point (104) transmits a list of association identifiers indicating that buffered data (212) are held for each wireless station (102) identified by the list.

Abstract: It is possible to reduce latency and/or overhead when performing a platoon handover by using the leading vehicle in the platoon to communicate handover requests and/or initial resource requests (e.g., random access transmissions) on behalf of trailing vehicles in the platoon. In one example, a leading vehicle in a platoon communicates a handover request to a source AP to request handover of the entire platoon from the source AP to a target AP. In such an example, the source AP then communicates handover commands to each vehicle in the platoon without receiving separate handover requests from the trailing vehicles, thereby reducing overhead in the access network. The handover commands notify the trailing vehicles of the handover, and may be sequentially communicated to the trailing vehicles based on their order in the platoon.

Abstract: A method and apparatus schedule user equipment uplink transmissions on an unlicensed carrier. A grant for transmitting physical uplink shared channel on a serving cell operating on an unlicensed carrier can be received in a subframe. A set of subframes can be determined for possible transmission of the physical uplink shared channel. Listen before talk can be performed on the unlicensed carrier to determine an earliest unoccupied subframe in the set of subframes. A physical uplink shared channel can be transmitted in multiple subframes within the set of subframes on the unlicensed carrier, starting with the earliest unoccupied subframe, in response to receiving the grant.

Abstract: Methods and structures are disclosed which facilitate handling discontinuous reception (DRX) in Long Term Evolution (LTE) type communication signal reception and transmission using one carrier, such as a licensed carrier, and another carrier, such as an unlicensed carrier, in the presence of other transmissions using the other carrier.

Abstract: Methods and structures are disclosed which facilitate co-existence of Long Term Evolution (LTE) type communication signal reception and transmission using one carrier, such as a licensed carrier, and another carrier, such as an unlicensed carrier, in the presence of other transmissions using the other carrier.

Abstract: The present invention provides a system and method for receiving and relaying a paging message via a paging proxy in a wide area wireless network. The system and method include detecting a proxy device for acting as a paging proxy near a present position of the mobile wireless communication device, where the proxy device includes a communication connection with a network paging controller, and is adapted to interact with the mobile wireless communication device separately from a wide area communication connection used by the mobile device to communicate with the wide area wireless network. The mobile wireless communication device is then associated with the proxy device for receiving and relaying an indication of paging messages on behalf of and to the mobile wireless communication device.

Abstract: A User Equipment (UE) can receive Downlink Control Information (DCI) from a base station. The DCI can contain a Channel State Information (CSI) request on a physical control channel in a subframe of a first serving cell. The CSI request can direct the UE to perform CSI measurements for at least one aperiodic Channel State Information Reference Signal (CSI-RS) of a second serving cell. The UE can ascertain CSI-RS resources in a subframe of the second serving cell based on at least the DCI contents. The UE can determine CSI based on the ascertained CSI-RS resources. The UE can send the determined CSI to the base station.

Abstract: Disclosed are methods for delivering data (212) to a wireless station (102). An access point (104), or any other suitable device or system, receives a plurality of association requests (204) from a plurality of wireless stations (102) and transmits a different association identifier (208) to each of the plurality of wireless stations (102). The access point (104) buffers data (212) for a subset of the wireless stations (102). If the number of wireless stations (102) with buffered data (212) at the access point (104) is less than a threshold, then the access point (104) transmits a list of association identifiers indicating that buffered data (212) are held for each wireless station (102) identified by the list.

Abstract: In embodiments of network connectivity switching utilizing an authentication device for switching network connectivity from a first device to a second device, the authentication device maintains an address of the first device with a memory of a radio-frequency identification (RFID) tag, and the first device is authenticated for wireless communication via the cellular network. The authentication device receives an interrogation of the RFID tag from the second device, which can communicate via the cellular network, and responsive to an RFID tag response indicating the address of the first device, the second device communicates a device switch order to the first device, communicates an attach request to the cellular network, and writes an address of the second device to the memory of the RFID tag. The authentication device can then authenticate the second device to switch the network connectivity to the second device for wireless communication via the cellular network.

Abstract: A UE can receive Zero Power Channel State Information Reference Signal (ZP-CSI-RS) configuration information for an aperiodic ZP-CSI-RS of a serving cell. The UE can receive Downlink Control Information (DCI) on a physical control channel in a subframe of the serving cell. The DCI can indicate whether a Physical Downlink Shared Channel (PDSCH) of the UE in the subframe of the serving cell is rate-matched around resource elements indicated by the ZP-CSI-RS configuration information. The UE can decode the PDSCH in the subframe of the serving cell based on rate-matching around the resource elements indicated by the ZP-CSI-RS configuration when the DCI indicates the PDSCH of the UE is rate-matched around the resource elements indicated by the ZP-CSI-RS configuration.

Abstract: In embodiments of network connectivity switching utilizing an authentication device for switching network connectivity from a first device to a second device, the authentication device maintains an address of the first device with a memory of a radio-frequency identification (RFID) tag, and the first device is authenticated for wireless communication via the cellular network. The authentication device receives an interrogation of the RFID tag from the second device, which can communicate via the cellular network, and responsive to an RFID tag response indicating the address of the first device, the second device communicates a device switch order to the first device, communicates an attach request to the cellular network, and writes an address of the second device to the memory of the RFID tag. The authentication device can then authenticate the second device to switch the network connectivity to the second device for wireless communication via the cellular network.

Abstract: In embodiments of network connectivity switching utilizing an authentication device for switching network connectivity from a first device to a second device, the authentication device receives a device switch indication from the second device, which can communicate via a cellular network. The authentication device communicates a device switch order to the first device, which is authenticated and communicatively linked for wireless communication via the cellular network. The authentication device communicates a network attach indication to the second device that then communicates an attach request to the cellular network, and the authentication device authenticates the second device to the cellular network. Alternatively, the authentication device receives a device switch indication from the second device and communicates a device switch order to the first device.

Abstract: A method of operating a wireless ad hoc network includes determining a group of intermediate devices on communication paths from a first source device and a second source device to a set of destination devices. Each intermediate device of the group has a communication path to a corresponding subset of destination devices such that a communication path exists from both the first source device and the second source device to each destination device of the set of destination devices. Each intermediate device of the group of intermediate devices is configured with a first linear network code corresponding to the first source device, and with a second linear network code corresponding to the second source device. The intermediate devices are also configured with an additional linear network code between itself and its corresponding subset of destination devices.