Abstract: In one embodiment, a method comprises establishing, by a first network device in a mesh network, a first connection with a second network device according to a prescribed discovery operation of a first link layer access protocol; advertising via the first connection, by the first network device to the second network device, link layer parameters used by the first network device to establish a second connection according to a second link layer access protocol; and the first network device minimizing a corresponding discovery operation of the second link layer access protocol during establishment of the second connection with the second network device, based on the link layer parameters advertised by the first network device to the second network device.

Abstract: A method for performing handover by wireless User Equipment (UE) is provided. The UE includes a Long Term Evolution-Mobile Extreme Convergence (LTE-MXC) application processor, a LTE processor and a Digital Signal Processor (DSP). The UE buffers a set of IP packets when a Radio Access Technology (RAT) indicator is less than a pre-defined threshold and sends the set of IP packets to the LTE processor and the DSP. The LTE processor transmits the set of IP packets to the LTE network and sends acknowledgement signals to the LTE-MXC application processor and the DSP. When the handover is complete, the LTE processor sends the transmission status of the set of IP packets to the DSP. The UE also includes multimode Radio Resource Control (RRC) and Non-Access Stratum (NAS) modules.

Abstract: In one example, an apparatus is provided that includes a processor configured to receive, in a first wireless network, an identifier of a base station in a second wireless network, and to determine an identity of a first device in the second wireless network. The apparatus is configured to transmit the identifier of the base station to the second wireless network.

Abstract: In one example, an apparatus is provided that includes a processor configured to receive, in a first wireless network, an identifier of a base station in a second wireless network, and to determine an identity of a first device in the second wireless network. The apparatus is configured to transmit the identifier of the base station to the second wireless network.

Abstract: A method for performing handover by wireless User Equipment (UE) is provided. The UE includes a Long Term Evolution-Mobile Extreme Convergence (LTE-MXC) application processor, a LTE processor and a Digital Signal Processor (DSP). The UE buffers a set of IP packets when a Radio Access Technology (RAT) indicator is less than a pre-defined threshold and sends the set of IP packets to the LTE processor and the DSP. The LTE processor transmits the set of IP packets to the LTE network and sends acknowledgement signals to the LTE-MXC application processor and the DSP. When the handover is complete, the LTE processor sends the transmission status of the set of IP packets to the DSP. The UE also includes multimode Radio Resource Control (RRC) and Non-Access Stratum (NAS) modules.

Abstract: A method for performing handover by wireless User Equipment (UE) is provided. The UE includes a Long Term Evolution-Mobile Extreme Convergence (LTE-MXC) application processor, a LTE processor and a Digital Signal Processor (DSP). The UE buffers a set of IP packets when a Radio Access Technology (RAT) indicator is less than a pre-defined threshold and sends the set of IP packets to the LTE processor and the DSP. The LTE processor transmits the set of IP packets to the LTE network and sends acknowledgement signals to the LTE-MXC application processor and the DSP. When the handover is complete, the LTE processor sends the transmission status of the set of IP packets to the DSP. The UE also includes multimode Radio Resource Control (RRC) and Non-Access Stratum (NAS) modules.

Abstract: A method provided in one embodiment and includes receiving, at a first network element, a first resource indicator indicative of a first resource capability of each of a plurality of second network elements, receiving a second resource indicator indicative of a second resource capability of each of the plurality of second network elements, and receiving a third resource indicator indicative of a third resource capability of each of the plurality of second network elements. The method further includes determining a metric value for each of the plurality of second network elements based upon the first resource indicator, the second resource indicator, and the third resource indicator of each of the second network elements, and determining a list of one or more acceptable network elements for a wireless device to establish a connection therewith based upon the metric value of each of the plurality of second network elements.

Abstract: In one example embodiment, an apparatus is provided that includes an antenna that receives, in a first wireless network, a first identifier of a second wireless network access point. The apparatus also includes a processor that processes data received by the antenna. The apparatus transmits, in the first wireless network, the first identifier of the second wireless network access point. The apparatus establishes a tunnel to the second wireless network. The antenna transmits a second identifier of the second wireless network access point.

Abstract: A method for performing handover by wireless User Equipment (UE) is provided. The UE includes a Long Term Evolution-Mobile Extreme Convergence (LTE-MXC) application processor, a LTE processor and a Digital Signal Processor (DSP). The UE buffers a set of IP packets when a Radio Access Technology (RAT) indicator is less than a pre-defined threshold and sends the set of IP packets to the LTE processor and the DSP. The LTE processor transmits the set of IP packets to the LTE network and sends acknowledgement signals to the LTE-MXC application processor and the DSP. When the handover is complete, the LTE processor sends the transmission status of the set of IP packets to the DSP. The UE also includes multimode Radio Resource Control (RRC) and Non-Access Stratum (NAS) modules.

Abstract: In one embodiment, a method comprises establishing, by a first network device in a mesh network, a first connection with a second network device according to a prescribed discovery operation of a first link layer access protocol; advertising via the first connection, by the first network device to the second network device, link layer parameters used by the first network device to establish a second connection according to a second link layer access protocol; and the first network device minimizing a corresponding discovery operation of the second link layer access protocol during establishment of the second connection with the second network device, based on the link layer parameters advertised by the first network device to the second network device.

Abstract: In one example embodiment, an apparatus is provided that includes an antenna that receives, in a first wireless network, a first identifier of a second wireless network access point. The apparatus also includes a processor that processes data received by the antenna. The apparatus transmits, in the first wireless network, the first identifier of the second wireless network access point. The apparatus establishes a tunnel to the second wireless network. The antenna transmits a second identifier of the second wireless network access point.

Abstract: A method for performing handover by wireless User Equipment (UE) is provided. The UE includes a Long Term Evolution-Mobile Extreme Convergence (LTE-MXC) application processor, a LTE processor and a Digital Signal Processor (DSP). The UE buffers a set of IP packets when a Radio Access Technology (RAT) indicator is less than a pre-defined threshold and sends the set of IP packets to the LTE processor and the DSP. The LTE processor transmits the set of IP packets to the LTE network and sends acknowledgement signals to the LTE-MXC application processor and the DSP. When the handover is complete, the LTE processor sends the transmission status of the set of IP packets to the DSP. The UE also includes multimode Radio Resource Control (RRC) and Non-Access Stratum (NAS) modules.

Abstract: A method provided in one embodiment includes determining a first resource indicator indicative of a first resource capability of a first network element, determining a second resource indicator indicative of a second resource capability of the first network element, determining a third resource indicator indicative of a third resource capability of the first network element, and sending the first resource indicator, the second resource indicator, and the third resource indicator to a second network element. The second network element is configured to determine a first metric value for the first network element based upon the first resource indicator, the second resource indicator, and the third resource indicator. The second network element is further configured to utilize the first metric value to determine a list of one or more acceptable network elements for a wireless device to establish a connection therewith.

Abstract: A method for performing handover by wireless User Equipment (UE) is provided. The UE includes a Long Term Evolution-Mobile Extreme Convergence (LTE-MXC) application processor, a LTE processor and a Digital Signal Processor (DSP). The UE buffers a set of IP packets when a Radio Access Technology (RAT) indicator is less than a pre-defined threshold and sends the set of IP packets to the LTE processor and the DSP. The LTE processor transmits the set of IP packets to the LTE network and sends acknowledgement signals to the LTE-MXC application processor and the DSP. When the handover is complete, the LTE processor sends the transmission status of the set of IP packets to the DSP. The UE also includes multimode Radio Resource Control (RRC) and. Non-Access Stratum (NAS) modules.

Abstract: A method provided in one embodiment and includes receiving, at a first network element, a first resource indicator indicative of a first resource capability of each of a plurality of second network elements, receiving a second resource indicator indicative of a second resource capability of each of the plurality of second network elements, and receiving a third resource indicator indicative of a third resource capability of each of the plurality of second network elements. The method further includes determining a metric value for each of the plurality of second network elements based upon the first resource indicator, the second resource indicator, and the third resource indicator of each of the second network elements, and determining a list of one or more acceptable network elements for a wireless device to establish a connection therewith based upon the metric value of each of the plurality of second network elements.

Abstract: A method provided in one embodiment includes determining a first resource indicator indicative of a first resource capability of a first network element, determining a second resource indicator indicative of a second resource capability of the first network element, determining a third resource indicator indicative of a third resource capability of the first network element, and sending the first resource indicator, the second resource indicator, and the third resource indicator to a second network element. The second network element is configured to determine a first metric value for the first network element based upon the first resource indicator, the second resource indicator, and the third resource indicator. The second network element is further configured to utilize the first metric value to determine a list of one or more acceptable network elements for a wireless device to establish a connection therewith.

Abstract: A method for performing handover by wireless User Equipment (UE) is provided. The UE includes a Long Term Evolution-Mobile Extreme Convergence (LTE-MXC) application processor, a LTE processor and a Digital Signal Processor (DSP). The UE buffers a set of IP packets when a Radio Access Technology (RAT) indicator is less than a pre-defined threshold and sends the set of IP packets to the LTE processor and the DSP. The LTE processor transmits the set of IP packets to the LTE network and sends acknowledgement signals to the LTE-MXC application processor and the DSP. When the handover is complete, the LTE processor sends the transmission status of the set of IP packets to the DSP. The UE also includes multimode Radio Resource Control (RRC) and Non-Access Stratum (NAS) modules.

Abstract: In one example, an apparatus is provided that includes a processor configured to receive, in a first wireless network, an identifier of a base station in a second wireless network, and to determine an identity of a first device in the second wireless network. The apparatus is configured to transmit the identifier of the base station to the second wireless network.

Abstract: In one example embodiment, an apparatus is provided that includes an antenna that receives, in a first wireless network, a first identifier of a second wireless network access point. The apparatus also includes a processor that processes data received by the antenna. The apparatus transmits, in the first wireless network, the first identifier of the second wireless network access point. The apparatus establishes a tunnel to the second wireless network. The antenna transmits a second identifier of the second wireless network access point.

Abstract: A cellular communication system includes a method for managing uplink (UL) quality-of-service (QoS) in a two-hop wireless cellular communication system, including determining a count of UL QoS requests received from each user equipment (UE) and determining a served-to-requested ratio that is a ratio of a the number of bytes of UL data served to each UE by a mobile relay to the number bytes of UL data requested by each UE from the mobile relay. A UE subsystem of the mobile relay determines if any UEs are experiencing low UL QoS based on the number of UL QoS requests and the served-to-requested ratio. In response, a macro base station allocates network resources for improving the UL QoS provided to the set of UEs.