Abstract: An access point including a memory; at least one network interface configured to interface over a network with one or more of a other access point and a user equipment (UE); and a processor configured to, establish, via the at least one interface, a virtual link with the UE based on the respective one of the at least one virtual address, and transfer the virtual link to the other access by transmitting a command to the other AP to set, after a time period, at least one network interface associated therewith to be addressable via the respective one of the at least one virtual address, and disassociating the at least one network interface and the respective one of at least one virtual address after the time period.

Abstract: In one example embodiment, a device includes a processor. The processor is configured to determine a plurality of data transmission rates between at least one client, an access point and the device belonging to a wireless network, determine a best communication route, from among available communication routes for the at least one client to communicate with the access point based on the determined plurality of data transmission rates and direct the at least one client to communicate with the access point via the determined best communication route.

Abstract: A network device operable with a hybrid mesh network having a plurality of network and client devices, comprising: a processor, a memory, and a first independently addressable network interface and a second independently addressable network interface, the first network interface and the second network interface being adapted to enable multiple communication pathways within the hybrid mesh network wherein the network device is configured to determine communication characteristics of one or more of the multiple communication pathways thereby to enable determination of optimization of communication within the hybrid mesh network by partitioning of the hybrid mesh network into two or more mesh islands wherein communication within each mesh island is non-overlapping with the another of the mesh islands.

Abstract: A network device operable with a hybrid mesh network having a plurality of network and client devices, comprising: a processor, a memory, and a first independently addressable network interface and a second independently addressable network interface, the first network interface and the second network interface being adapted to enable multiple communication pathways within the hybrid mesh network wherein the network device is configured to determine communication characteristics of one or more of the multiple communication pathways thereby to enable determination of optimization of communication within the hybrid mesh network by partitioning of the hybrid mesh network into two or more mesh islands wherein communication within each mesh island is non-overlapping with the another of the mesh islands.

Abstract: A network device operable with a hybrid mesh network having a plurality of network and client devices, comprising: a processor, a memory, and a first independently addressable network interface and a second independently addressable network interface, the first network interface and the second network interface being adapted to enable multiple communication pathways within the hybrid mesh network wherein the network device is configured to determine communication characteristics of one or more of the multiple communication pathways thereby to enable determination of optimization of communication within the hybrid mesh network by partitioning of the hybrid mesh network into two or more mesh islands wherein communication within each mesh island is non-overlapping with the another of the mesh islands.

Abstract: In one example embodiment, a device includes a processor. The processor is configured to determine a plurality of data transmission rates between at least one client, an access point and the device belonging to a wireless network, determine a best communication route, from among available communication routes for the at least one client to communicate with the access point based on the determined plurality of data transmission rates and direct the at least one client to communicate with the access point via the determined best communication route.

Abstract: An access point including a memory; at least one network interface configured to interface over a network with one or more of a other access point and a user equipment (UE); and a processor configured to, establish, via the at least one interface, a virtual link with the UE based on the respective one of the at least one virtual address, and transfer the virtual link to the other access by transmitting a command to the other AP to set, after a time period, at least one network interface associated therewith to be addressable via the respective one of the at least one virtual address, and disassociating the at least one network interface and the respective one of at least one virtual address after the time period.

Abstract: An access point including a memory; at least one network interface configured to interface over a network with one or more of a other access point and a user equipment (UE); and a processor configured to, establish, via the at least one interface, a virtual link with the UE based on the respective one of the at least one virtual address, and transfer the virtual link to the other access by transmitting a command to the other AP to set, after a time period, at least one network interface associated therewith to be addressable via the respective one of the at least one virtual address, and disassociating the at least one network interface and the respective one of at least one virtual address after the time period.

Abstract: In one example embodiment, a device includes a processor. The processor is configured to determine a plurality of data transmission rates between at least one client, an access point and the device belonging to a wireless network, determine a best communication route, from among available communication routes for the at least one client to communicate with the access point based on the determined plurality of data transmission rates and direct the at least one client to communicate with the access point via the determined best communication route.

Abstract: An access point is configured to pair with other access points in a network. The access point includes at least two interfaces configured to interface to other access points over a link layer therein using heterogeneous backhaul access technologies; and a memory having machine executable code, therein that, when executed by a processor, cause the at least two interfaces to pair with one or more of the other access points using configuration information stored within the memory.

Abstract: A network device operable with a hybrid mesh network having a plurality of network and client devices, comprising: a processor, a memory, and a first independently addressable network interface and a second independently addressable network interface, the first network interface and the second network interface being adapted to enable multiple communication pathways within the hybrid mesh networkwherein the network device is configured to determine communication characteristics of one or more of the multiple communication pathways thereby to enable determination of optimization of communication within the hybrid mesh network by partitioning of the hybrid mesh network into two or more mesh islands wherein communication within each mesh island is non-overlapping with the another of the mesh islands.

Abstract: An access point including a memory; at least one network interface configured to interface over a network with one or more of a other access point and a user equipment (UE); and a processor configured to, establish, via the at least one interface, a virtual link with the UE based on the respective one of the at least one virtual address, and transfer the virtual link to the other access by transmitting a command to the other AP to set, after a time period, at least one network interface associated therewith to be addressable via the respective one of the at least one virtual address, and disassociating the at least one network interface and the respective one of at least one virtual address after the time period.

Abstract: The present disclosure proposes a method for minor modifications to the Distributed Coordination Function (DCF) channel access mechanism in order to enable a greater number of concurrent communications in a unit area in compliance with the current protocol design. The method comprises equipping nodes with wider neighborhood information than what is obtained with IEEE 802.11, and with a device calibration that equips the device with the knowledge of its performance in the presence of interference. The present disclosure medium access mechanism increases the aggregate throughput with every additional concurrent communication that is enabled in the shared medium. Cocktail Party-capable devices can fairly coexist with 802.11 legacy DCF devices, and co-operate with these devices in the same network without changes to those devices or to the standard. The same or similar mechanisms can be applied to other systems and standards in order to enable concurrent communications in the same contention area.

Abstract: In one example embodiment, a device includes a processor. The processor is configured to determine a plurality of data transmission rates between at least one client, an access point and the device belonging to a wireless network, determine a best communication route, from among available communication routes for the at least one client to communicate with the access point based on the determined plurality of data transmission rates and direct the at least one client to communicate with the access point via the determined best communication route.

Abstract: A gateway device includes an input port for receiving Internet signals, a single RF module, a memory and a processor. The memory has computer executable instructions stored therein, wherein execution of the computer executable instructions by the processor causes the processor to retrieve a channel monitoring time from the memory. The execution of the computer executable instructions further causes the processor to monitor selected channels and develop and store in the memory a value of a confidence level for each channel. Each channel is monitored for a predetermined period of time between transmissions of data and the confidence level associated with a channel indicates the probability that frequencies associated with such channel are used by a radar system.

Abstract: The present disclosure proposes a method for minor modifications to the Distributed Coordination Function (DCF) channel access mechanism in order to enable a greater number of concurrent communications in a unit area in compliance with the current protocol design. The method comprises equipping nodes with wider neighborhood information than what is obtained with IEEE 802.11, and with a device calibration that equips the device with the knowledge of its performance in the presence of interference. The present disclosure medium access mechanism increases the aggregate throughput with every additional concurrent communication that is enabled in the shared medium. Cocktail Party-capable devices can fairly coexist with 802.11 legacy DCF devices, and co-operate with these devices in the same network without changes to those devices or to the standard. The same or similar mechanisms can be applied to other systems and standards in order to enable concurrent communications in the same contention area.

Abstract: An access point is configured to pair with other access points in a network. The access point includes at least two interfaces configured to interface to other access points over a link layer therein using heterogeneous backhaul access technologies; and a memory having machine executable code, therein that, when executed by a processor, cause the at least two interfaces to pair with one or more of the other access points using configuration information stored within the memory.

Abstract: The present disclosure proposes a method for minor modifications to the Distributed Coordination Function (DCF) channel access mechanism in order to enable a greater number of concurrent communications in a unit area in compliance with the current protocol design. The method comprises equipping nodes with wider neighborhood information than what is obtained with IEEE 802.11, and with a device calibration that equips the device with the knowledge of its performance in the presence of interference. The present disclosure medium access mechanism increases the aggregate throughput with every additional concurrent communication that is enabled in the shared medium. Cocktail Party-capable devices can fairly coexist with 802.11 legacy DCF devices, and co-operate with these devices in the same network without changes to those devices or to the standard. The same or similar mechanisms can be applied to other systems and standards in order to enable concurrent communications in the same contention area.

Abstract: The present disclosure proposes a method for minor modifications to the Distributed Coordination Function (DCF) channel access mechanism in order to enable a greater number of concurrent communications in a unit area in compliance with the current protocol design. The method comprises equipping nodes with wider neighborhood information than what is obtained with IEEE 802.11, and with a device calibration that equips the device with the knowledge of its performance in the presence of interference. The present disclosure medium access mechanism increases the aggregate throughput with every additional concurrent communication that is enabled in the shared medium. Cocktail Party-capable devices can fairly coexist with 802.11 legacy DCF devices, and co-operate with these devices in the same network without changes to those devices or to the standard. The same or similar mechanisms can be applied to other systems and standards in order to enable concurrent communications in the same contention area.

Abstract: A gateway device includes an input port for receiving Internet signals, a single RF module, a memory and a processor. The memory has computer executable instructions stored therein, wherein execution of the computer executable instructions by the processor causes the processor to retrieve a channel monitoring time from the memory. The execution of the computer executable instructions further causes the processor to monitor selected channels and develop and store in the memory a value of a confidence level for each channel. Each channel is monitored for a predetermined period of time between transmissions of data and the confidence level associated with a channel indicates the probability that frequencies associated with such channel are used by a radar system.