Abstract: A wireless communication system includes a private LTE base station, a commercial carrier LTE base station, and a mobile wireless communications device. The mobile wireless communications device includes an LTE transceiver, a memory, and a controller coupled to the LTE transceiver and the memory. The controller stores an assigned AC value in the memory based upon a priority of use characteristic value, stores a random AC value in the memory, and determines whether access is available to the private LTE base station or the commercial carrier LTE base station. When the private LTE base station is available for access, a connection is made based upon the assigned AC value and a private LTE barring value received from the private LTE base station. When the commercial carrier LTE base station is available for access, a connection is made based upon the random AC value and a commercial carrier barring value.

Abstract: A wireless communication system includes a private LTE base station, a commercial carrier LTE base station, and a mobile wireless communications device. The mobile wireless communications device includes an LTE transceiver, a memory, and a controller coupled to the LTE transceiver and the memory. The controller stores an assigned AC value in the memory based upon a priority of use characteristic value, stores a random AC value in the memory, and determines whether access is available to the private LTE base station or the commercial carrier LTE base station. When the private LTE base station is available for access, a connection is made based upon the assigned AC value and a private LTE barring value received from the private LTE base station. When the commercial carrier LTE base station is available for access, a connection is made based upon the random AC value and a commercial carrier barring value.

Abstract: A wireless communication network is provided that includes a plurality of communication cells each defined by at least one communication coverage area and a plurality of access points each corresponding to a different one of the plurality of communication cells. Each access point is configured to communicate on a first frequency with at least one of (i) a subscriber in the at least one communication coverage area in a first communication cell and (ii) a subscriber in a second communication cell. Each access point is further configured to communicate on a second frequency with an access point in a third communication cell.

Abstract: A wireless communication network is provided that includes a plurality of communication cells each defined by at least one communication coverage area and a plurality of access points each corresponding to a different one of the plurality of communication cells. Each access point is configured to communicate on a first frequency with at least one of (i) a subscriber in the at least one communication coverage area in a first communication cell and (ii) a subscriber in a second communication cell. Each access point is further configured to communicate on a second frequency with an access point in a third communication cell.

Abstract: A wireless communication network is provided that includes a plurality of communication cells each defined by at least one communication coverage area and a plurality of access points each corresponding to a different one of the plurality of communication cells. Each access point is configured to communicate on a first frequency with at least one of (i) a subscriber in the at least one communication coverage area in a first communication cell and (ii) a subscriber in a second communication cell. Each access point is further configured to communicate on a second frequency with an access point in a third communication cell.

Abstract: A wireless communication network is provided that includes a plurality of access points. A plurality of the access points are configured as local access points that are each configured to operate at one of a set of frequencies and within a communication range. The local access points may communicate with a mobile device within the corresponding local access point communication range. The wireless network further includes an access point configured as a master access point to communicate with each of the plurality of local access points at a frequency that is outside the set of frequencies of the local access points.

Abstract: A heterojunction bipolar transistor has a mesa including collector 604, base 603, and emitter 602 layers. The mesa has first and second sidewalls 606. An improved heat dissipation structure comprises a layer of electrically insulative and thermally conductive material 607 disposed on one of the sidewalls. A thermal path metal 600 is electrically connected to the emitter 602 and is disposed on the layer of electrically insulative and thermally conductive material 607. The thermal path metal 600 extends from the emitter 602 to the substrate 608 providing for efficient dissipation of heat that is generated by the HBT device.