Abstract: A network-connected device may receive specific software configuration settings based on geophysical location information known about the device. The geophysical location information may come from a global positioning system (GPS) receiver or any other mechanism for determining a location for the device. The software settings may be stored in a volatile memory so that when the device is disconnected from a power source, it does not contain the specific settings required for the device to operate. In another embodiment, localization settings to meet regulatory requirements or other local configuration may be downloaded to the device based on the geophysical location information.

Abstract: Subscriptions to a network may be limited to certain geographic areas by defining a geographic area for the subscriber, identifying all of the network access points with the geographic area, and enabling the subscriber to access the network through those network access points. The network access points may be outfitted with Global Positioning System receivers or other geophysical location determination mechanisms such that the actual location of the network access point is used in determining a subscriber's permitted access.

Abstract: Applications requiring multiple network devices may use geophysical information about the nodes to route traffic. Each device attached to a network may have both a network address and a geophysical location. When an application requires the use of multiple devices, for example restricting content or services in a certain area or for prioritizing content or services in an area, the devices are identified and used based on their geophysical location rather than network addresses.

Abstract: Wireless devices connected to a network backbone may be physically located by establishing communications between an unknown device and one or more known devices. Through distance estimation and/or directional estimation, the physical location of a network device may be determined by triangulation. In some instances, the new device may passively receive signals by which the device location may be determined, while in other instances, the device may transmit a signal that is received by other network devices.

Abstract: Network devices have an internal or external geophysical location detection device that is used to verify the physical location of the network device. The physical location may be compared to the expected location of the device, the network connection point, or connection with neighboring devices to determine if the network device is permitted access to the network. In one embodiment, a geophysical location is stored in the memory of the device upon initial installation. When the device is attached to the network at a later time, the actual location is compared to the previous location or a list of permitted locations to ensure the device has not been moved without authorization. In a second embodiment, the expected location is determined by attempting to detect the device with another network device.

Abstract: A system and method for a distribution network is provided wherein cascaded power amplifiers with bypass switching are disposed along the branches of the network. The amplifiers may have an RF modem and a programmable digital computer that enables communication with a headend or a controlling computer as well as a bypass switch control for disabling the amplification function of the amplifiers. The amplifier may have a wireless communication system for communicating with individual subscriber's homes and communicating with a neighboring amplifier system for use in emergency situations or during installation and configuration of the network. The network comprised of the amplifiers may have redundant signal paths, using the wireless communication devices of the amplifiers, which may be used as backup signal paths for certain communications requiring high uptime such as telephony.

Abstract: In a network having multiple wireless transmitters, a mobile device operating with the network may be assigned one or more wireless transmitters as a virtual cell. Transmissions to the mobile device may be broadcast from several cells simultaneously, so that the mobile device will receive the transmissions in any of the areas covered by the cells. When the network determines that the mobile device is moving out of one cell area and into another, the virtual cell may move as well. The virtual cell may consist of one or many areas covered by a wireless network, and may have a shape that is determined by geography, trajectory, wireless coverage, or other factors.

Abstract: A system and method for locating Open System Interconnection (OSI) Layer 3 or higher devices at strategic locations throughout the network. The Layer 3 devices may have additional capabilities, such as wireless connections or other functionality that may benefit both the consumer and network provider. Layer 2 traffic is confined to smaller areas, allowing the main backbone of the network to handle more useful data traffic and less overhead traffic.

Abstract: A system and method for communicating on a network having multiple radios by substantially simultaneously transmitting a beacon signal from the radios. When a first radio receives a beacon signal from another radio, the first radio determines if the received beacon signal contains a priority designator. If the received beacon signal has a higher priority than that of the first radio, the first radio synchronizes subsequent transmission of its beacon signals to the other radio's beacon signal. In a network environment, radios may continuously adapt their beacon signals to transmit substantially simultaneously. Additionally, radios in a congested environment may coordinate beacon signals to minimize overhead use of bandwidth.

Abstract: A system and method for communicating on a network having multiple radios by substantially simultaneously transmitting a beacon signal from the radios. A broadcast signal is received substantially simultaneously by all of the radios and used to coordinate subsequent beacon signals. The broadcast signal may be from another of the same radios, or may be a broadcast signal from a television broadcast, global positioning system broadcast, or any other broadcast designed to reach several radios substantially simultaneously. The radios may normally operate by detecting another transmission and refraining from transmitting until the transmission has ceased. However, while transmitting synchronized beacon signals, the radios may broadcast simultaneously.

Abstract: A system and method for mounting one or more radio antennas in an outdoor enclosure by placing a ground plane underneath the antennas and above any electrical devices. The ground plane may be used to mount the antennas in any configuration and be coupled to earth ground. In some embodiments, an outdoor enclosure may have a weatherproof radome mounted around the antennas.

Abstract: A system and method for a distribution network is provided wherein cascaded power amplifiers with bypass switching are disposed along the branches of the network. The amplifiers may have an RF modem and a programmable digital computer that enables communication with a headend or a controlling computer as well as a bypass switch control for disabling the amplification function of the amplifiers. The amplifier may have a wireless communication system for communicating with individual subscriber's homes and communicating with a neighboring amplifier system for use in emergency situations or during installation and configuration of the network. The network comprised of the amplifiers may have redundant signal paths, using the wireless communication devices of the amplifiers, which may be used as backup signal paths for certain communications requiring high uptime such as telephony.

Abstract: A wireless access point having multiple radio transceivers and multiple antennas is operated by sending a beacon signal from several radio transceivers simultaneously. The radio transceivers may normally operate by delay sending a transmission when another ongoing transmission is detected, which would normally prevent beacon signals from being broadcast simultaneously. By forcing the beacon signals to transmit simultaneously, the available bandwidth is utilized much more efficiently. Embodiments include wireless access points that contain multiple directional antennas as well as those that have overlapping coverage areas.

Abstract: A network having multiple radios transmits a beacon signal from several radios substantially simultaneously. One embodiment includes a network having a communications backbone that connects several radio transceivers. Another embodiment includes a single station having multiple radio transceivers, which may or may not have directional antennas. Various methods for synchronizing the beacon signals may be used, including transmitting a heartbeat signal along the network so that the beacon signals are broadcast substantially simultaneously.

Abstract: A system and method for locating Open System Interconnection (OSI) Layer 3 or higher devices at strategic locations throughout the network. The Layer 3 devices may have additional capabilities, such as wireless connections or other functionality that may benefit both the consumer and network provider. Layer 2 traffic is confined to smaller areas, allowing the main backbone of the network to handle more useful data traffic and less overhead traffic.