Abstract:
In embodiments of the present disclosure improved capabilities are described for increasing the bandwidth in a wireless communication network, where centralized optimization servers with publish-subscribe broker services are utilized in conjunction with a queuing service application that provides packet service continuity when a mobile device moves between different access control nodes of the wireless communication network, and wherein the queuing service application is connected to a publish/subscribe broker network to receive service packets matching the service packets directed to the mobile device, wherein the service application makes the matching service packets available to the mobile device to replace service packets that the mobile device did not receive during a time in which the mobile device is in transition between being connected to any of the access nodes.
Abstract:
In embodiments of the present disclosure systems and methods implementing base station replacement in an ad hoc LTE system are described. In embodiments, an ad-hoc replacement cellular LTE base transceiver station connects to the back haul network and to a base transceiver station replacement computing facility. The base transceiver station replacement computing facility provisions the replacement cellular LTE base transceiver station with the same parameters as those of a first cellular LTE base transceiver station to which a plurality of mobile devices are connected, except for the cell identifier. The first cellular LTE base transceiver station reduces its transmit power while the replacement cellular LTE base transceiver station increases its transmit power, and each of the plurality of mobile devices are handed over from the first cellular LTE base transceiver station to the replacement cellular LTE base transceiver station when power levels and RF propagation characteristics of the first and the replacement cellular transceiver stations determine appropriate handover conditions exist based on a predetermined algorithm, wherein the replacing of the cellular LTE base transceiver station is complete when all of the plurality of mobile transceiver devices are handed over to the replacement cellular LTE base transceiver station, and the first cellular LTE base transceiver station can removed from service.
Abstract:
In embodiments of the present disclosure improved capabilities are described for providing efficient delivery of real-time synchronous services over a large area broadband LTE wireless network, where optimization servers utilizing publish-subscribe broker services are provided within the wireless network to reduce the resources required for applications streaming data to a plurality of mobile cellular devices.
Abstract:
In embodiments of the present disclosure improved capabilities are described for increasing the bandwidth in a wireless communication network, where centralized optimization servers with publish-subscribe broker services are utilized in conjunction with a queuing service application that provides packet service continuity when a mobile device moves between different access control nodes of the wireless communication network, and wherein the queuing service application is connected to a publish/subscribe broker network to receive service packets matching the service packets directed to the mobile device, wherein the service application makes the matching service packets available to the mobile device to replace service packets that the mobile device did not receive during a time in which the mobile device is in transition between being connected to any of the access nodes.
Abstract:
In embodiments of the present disclosure improved capabilities are described for increasing the bandwidth in a large area broadband network, where a scheduler facility, in association with a cellular LTE base transceiver station utilizing an agile beam forming antenna system, schedules communications between the LTE base transceiver station and mobile transceiver devices, wherein the scheduler facility schedules communications with a target mobile transceiver device to take place in one of the m times N RF beams of the agile beam forming antenna system based on a location determination of the target mobile transceiver device within the cell coverage area determined through a location determination algorithm that utilizes at least one of a channel quality indicator (CQI) measurement and a sounding reference signal (SRS) measurement collected through a communicative interaction between the cellular LTE base transceiver station and the target mobile transceiver device.
Abstract:
In embodiments of the present disclosure, improved capabilities are described for a sensor platform in a wireless network, where optimization servers utilizing publish-subscribe broker services are provided within the wireless network to provide conferenced connectivity between sensor devices and communicating entities.
Abstract:
In embodiments of the present disclosure, improved capabilities are described for a sensor platform in a wireless network, where optimization servers utilizing publish-subscribe broker services are provided within the wireless network to provide conferenced connectivity between sensor devices and communicating entities.
Abstract:
In embodiments of the present disclosure improved capabilities are described for increasing the bandwidth in a large area broadband LTE wireless network, where regional optimization servers are incorporated near the wireless network in association with the public data network gateway, thus reducing the time-latency for applications being run from a mobile cellular device. Further, by associating additional optimization servers at base stations, application functionality may be optionally transferred from the regional optimization server to the local base station optimization server in instances where a number of mobile cellular devices are requesting the same data via their access through the same cell, and in other instances, to the effect that back haul network bandwidth utilization is reduced or eliminated.
Abstract:
In embodiments of the present disclosure improved capabilities are described for reducing inter-cell interference in a large area broadband LTE wireless network utilizing RF agile beam forming antennas, where the reduced inter-cell interference is realized by arranging the sets of rotating RF beams in each cell such that adjacent RF beam sub-areas in the same or in different cells are not illuminated at the same time. The reduction in inter-cell interference results in reduced interference noise for users located near the edges of cells, thereby allowing them to be assigned higher data rates. Also, the same set of sub-carriers can be assigned by adjacent cells to users located in the RF beam sub-areas at the cell boundaries, thereby allowing the complete set of LTE sub-carriers to be assigned to any user at any time, without requiring additional cell-to-cell communications.
Abstract:
In embodiments of the present disclosure improved capabilities are described for increasing the bandwidth in a large area broadband network, where a scheduler facility, in association with a cellular LTE base transceiver station utilizing an agile beam forming antenna system, schedules communications between the LTE base transceiver station and mobile transceiver devices, wherein the scheduler facility schedules communications with a target mobile transceiver device to take place in one of the m times N RF beams of the agile beam forming antenna system based on a location determination of the target mobile transceiver device within the cell coverage area determined through a location determination algorithm that utilizes at least one of a channel quality indicator (CQI) measurement and a sounding reference signal (SRS) measurement collected through a communicative interaction between the cellular LTE base transceiver station and the target mobile transceiver device.