Abstract: In one embodiment, a wireless communication unit is provided. The wireless communication unit comprises a transceiver operable to transmit to and receive wireless signals from one or more wireless devices in a service area of the wireless communication unit; a controller operable to manage operation of the transceiver and to obtain and store connection information for each of the one or more wireless devices; and a cache operable to store location-based data associated with the service area of the wireless communication unit. The controller is further operable to push location-based data from the cache to at least a subset of the one or more wireless devices using the stored connection information for the subset of the one or more wireless devices.

Abstract: Systems and methods for IP communication over a distributed antenna system transport are provided. In one embodiment, a method for providing Ethernet connectivity over a distributed antenna system comprises receiving internet protocol (IP) formatted data from an internet protocol device coupled to a remote unit of a distributed antenna system; sampling wireless radio frequency (RF) signals received at the remote unit to produce digitized RF samples; generating a serial data stream for output to a host unit of the distributed antenna system, the serial data stream further comprising a multiple-timeslot communication frame providing a first partition of bandwidth for transporting the digitized RF samples and a second partition of bandwidth for implementing an Ethernet pipe for transporting the IP formatted data.

Abstract: A wireless network comprises a plurality of areas of interest and a core network coupled to each of the plurality of areas of interest to route real-time data from each of the plurality of areas of interest. Each of the plurality of areas of interest includes a plurality of wireless communication units. Each wireless communication unit comprises a local cache to store non-real-time data; and a gateway to process non-real-time data requests and provide an interface to a packet network.

Abstract: A local wireless system comprises a plurality of wireless communication units to transmit to and receive wireless signals from one or more wireless devices and a soft switch coupled to the plurality of wireless communication units to obtain connection information for each of the one or more wireless devices. The soft switch comprises a memory to store the connection information and location-based data associated with a service area of the plurality of wireless communication units; and a gateway to process non-real-time data requests and provide an interface to a packet network. The soft switch is operable to push the location-based data from the memory to at least a subset of the one or more wireless devices using the connection information stored in the memory.

Abstract: A communications system dynamically reconfigurable for RF bandwidth and modulation protocols is disclosed. A server comprises one or more radio head interface modules and a call processing software module adapted to communicate with each other. The call processing software is adapted to perform modulation and demodulation of voice and data streams using one or more air interface protocols. A radio head unit coupled to the radio head interface module communicates with one or more subscriber units. The radio head interface module receives either air interface protocol configuration information, or RF signal bandwidth allocation information, from the call processing software module for one or more communication channels, the information providing a timing trigger and a protocol or bandwidth for one or more communication channels. The radio head interface module reconfigures itself for one or more communications channels, based on the change instructed by the call processing software.

Abstract: Systems and methods for the analog transport of RF voice/data communications are provided. In one embodiment, a method for transporting analog multi-band RF signals is provided. The method comprises receiving a first multi-band RF signal from a first communications medium, the first multi-band RF signal including a first RF frequency band and one or more additional RF frequency bands; separating the first RF frequency band from the multi-band RF signal; varying a power level of the first RF frequency band; recombining the first RF frequency band with the one or more additional RF frequency bands into a second multi-band RF signal; and transmitting the second multi-band RF signal on a second communications medium.

Abstract: Systems for dynamic reallocation of bandwidth and modulation protocols is provided. In one embodiment, a radio head interface module comprises: a transmit buffer adapted to receive a data stream from a signal processing module and store the data stream as a page of data samples having a page header; a transmit engine; a digital upconverter, the transmit engine adapted to transfer the page of data samples from the transmit buffer to the digital upconverter; a configuration management unit adapted to receive reconfiguration information from the signal processing module, the reconfiguration information including at least one of air interface protocol parameters and bandwidth allocation information; and a memory adapted with digital upconverter parameters. The configuration management unit is accesses the memory to lookup associated digital upconverter parameters based on the reconfiguration information.

Abstract: An apparatus for enclosing electronic components such as used in telecommunication systems is disclosed. The apparatus includes a housing defining a chamber, with the housing comprising a front wall having an outer surface and a length dimension greater than a width dimension. A pair of opposing side walls are each contiguous with the front wall, and a pair of opposing end walls are each contiguous with the side walls and the front wall. A plurality of non-removable heat transfer fins are an integral part of the outer surface of the front wall. The fins are positioned at an angle with respect to the length dimension of the front wall, with each of the fins having a continuous uninterrupted structure across the outer surface between the opposing side walls. A removable back cover opposite the front wall is configured to seal the chamber of the housing.

Abstract: An apparatus for enclosing electronic components such as used in telecommunication systems is disclosed. The apparatus includes a housing defining a chamber, with the housing comprising a front wall having an outer surface and a length dimension greater than a width dimension. A pair of opposing side walls are each contiguous with the front wall, and a pair of opposing end walls are each contiguous with the side walls and the front wall. A plurality of non-removable heat transfer fins are an integral part of the outer surface of the front wall. The fins are positioned at an angle with respect to the length dimension of the front wall, with each of the fins having a continuous uninterrupted structure across the outer surface between the opposing side walls. A removable back cover opposite the front wall is configured to seal the chamber of the housing.

Abstract: An apparatus for enclosing electronic components comprises a chassis enclosure defining an internal chamber and having an upper portion and a lower portion. The upper portion comprises a first front wall having a length dimension greater than a width dimension, and a first pair of opposing side walls that are each contiguous with the first front wall. The lower portion comprises a second front wall having a length dimension less than the length dimension of the first front wall, and a second pair of opposing side walls that are each contiguous with the second front wall. A plurality of heat sink fins are on each of the first front and side walls, and on each of the second front and side walls. Each of the heat sink fins are configured to be substantially parallel to the length dimension of the first front wall and the second front wall, and extend continuously along each wall. The plurality of heat sink fins has an arcuate-like end view profile on each wall of the chassis enclosure.

Abstract: An apparatus for enclosing electronic components comprises a chassis enclosure defining an internal chamber and having an upper portion and a lower portion. The upper portion comprises a first front wall having a length dimension greater than a width dimension, and a first pair of opposing side walls that are each contiguous with the first front wall. The lower portion comprises a second front wall having a length dimension less than the length dimension of the first front wall, and a second pair of opposing side walls that are each contiguous with the second front wall. A plurality of heat sink fins are on each of the first front and side walls, and on each of the second front and side walls. Each of the heat sink fins are configured to be substantially parallel to the length dimension of the first front wall and the second front wall, and extend continuously along each wall. The plurality of heat sink fins has an arcuate-like end view profile on each wall of the chassis enclosure.

Abstract: Systems for dynamic reallocation of bandwidth and modulation protocols is provided. In one embodiment, a radio head interface module comprises: a transmit buffer adapted to receive a data stream from a signal processing module and store the data stream as a page of data samples having a page header; a transmit engine; a digital upconverter, the transmit engine adapted to transfer the page of data samples from the transmit buffer to the digital upconverter; a configuration management unit adapted to receive reconfiguration information from the signal processing module, the reconfiguration information including at least one of air interface protocol parameters and bandwidth allocation information; and a memory adapted with digital upconverter parameters. The configuration management unit is accesses the memory to lookup associated digital upconverter parameters based on the reconfiguration information.

Abstract: A communication system is provided. The communication system includes a host unit that is adapted to communicate wireless telephony signals with a telephony network and adapted to communicate wireless data with at least one data network. A communication link carries both the wireless telephony signals and the wireless data. At least one remote antenna unit is communicatively coupled to the host unit over the communication link. The remote antenna unit communicates the wireless telephony signals and the wireless data with wireless terminals. The at least one remote unit further communicates digitized telephony signals and wireless data signals with the host unit over the communication link.

Abstract: A communication system is provided. The communication system includes a host unit that is adapted to communicate wireless telephony signals with a telephony network and adapted to communicate wireless data with at least one data network. A communication link carries both the wireless telephony signals and the wireless data. At least one remote antenna unit is communicatively coupled to the host unit over the communication link. The remote antenna unit communicates the wireless telephony signals and the wireless data with wireless terminals. The at least one remote unit further communicates digitized telephony signals and wireless data signals with the host unit over the communication link.

Abstract: A transmission system (10). The transmission system communicates data to a number of subscribers (14a, 14b). The transmission system includes a transceiver (12) that has a number of highly directional antennas (28). A number of digital repeaters (16a, 16b, 16c) are disposed in a geographic region serviced by the transceiver. The repeaters include a sectorized antenna that communicates with subscribers in a number of sectors of the geographic region of the repeater. The repeater also includes an upstream demodulator/modulator circuit (19). The upstream demodulator/modulator circuit demodulates data from signals from subscribers that were modulated with a first modulation technique, and generates a re-modulated signal with the data using a second modulation technique.

Abstract: A transmission system (10). The transmission system communicates data to a number of subscribers (14a, 14b). The transmission system includes a transceiver (12) that has a number of highly directional antennas (28). A number of digital repeaters (16a,16b,16c) are disposed in a geographic region serviced by the transceiver. The repeaters include a sectorized antenna that communicates with subscribers in a number of sectors of the geographic region of the repeater. The repeater also includes an upstream demodulator/modulator circuit (19). The upstream demodulator/modulator circuit demodulates data from signals from subscribers that were modulated with a first modulation technique, and generates a re-modulated signal with the data using a second modulation technique. The second modulation technique is different from the first modulation technique such that the signals from the subscribers from the number of sectors are combined in the re-modulated signal so as to increase the capacity of the transmission system.

Abstract: A transmission system (10). The transmission system communicates data to a number of subscribers (14a, 14b). The transmission system includes a transceiver (12) that has a number of highly directional antennas (28). A number of digital repeaters (16a, 16b, 16c) are disposed in a geographic region serviced by the transceiver. The repeaters include a sectorized antenna that communicates with subscribers in a number of sectors of the geographic region of the repeater. The repeater also includes an upstream demodulator/modulator circuit (19). The upstream demodulator/modulator circuit demodulates data from signals from subscribers that were modulated with a first modulation technique, and generates a re-modulated signal with the data using a second modulation technique.

Abstract: A system for distributing RF signals to users over power lines in a structure. The system includes a head end unit that receives RF signals in a first frequency range to be distributed to users in the structure. The head end unit is coupled to the power lines of the structure. RF signals are transmitted over the power lines in a second frequency range. The head end unit includes a frequency converter that translates RF signals between the first frequency range and the second frequency range. The system also includes a number of remote units. The remote units are coupled to the power lines and disposed throughout the structure to provide RF coverage within the structure. The remote units include frequency converters that convert signals between the first and second frequency ranges. Further, an antenna is coupled to each remote unit to transmit signals to and receive signals from the users in the first frequency range.

Abstract: A method and apparatus for sectorizing coverage of a cellular communications area includes providing a remote unit having microcell antenna units. Each microcell antenna unit is configured to cover a particular sector. The remote unit is connected to a sectorized base station unit which is connected to a mobile telecommunications switching office. Separate digitized streams representative of telephone signals received from the mobile telecommunications switching office are generated corresponding to the microcell antenna units and the separate digitized streams are multiplexed and transmitted to the remote unit. The remote unit demultiplexes the multiplexed digitized streams into the separate digitized streams corresponding to the microcell antenna units and the separate digitized streams are converted to RF signals for coverage of a particular sector by the corresponding microcell antenna unit.