Peltbeam Inc.

Vivint, Inc.

Aruba Networks, Inc.

Vivint Wireless, Inc.

Airfide Networks LLC

Datasat Technologies Ag

Venkat Kalkunte

Mehdi Hatamian

Arman Rofougaran

Puya Rofougaran

Pravin Bathija

Kevin R Ross

Cyril Arokiaraj Arool Emmanuel

Tim Skelton

Pradeep Iyer

Abhijeet Bhattacharya

Stephen Edward Boynton

Rajneesh Bajpai

A communication system includes a plurality of edge devices comprising a first edge device. The first edge device fires a plurality of first beams from a donor antenna array based on different first beam indexes and fires a plurality of second beams from one or more relay antenna arrays based on different second beam indexes. The first edge device measures signal strength of each fired beam, identifies a donor beam index and one or more relay beam indexes based on the measured signal strengths exceeding a threshold, establishes a first communication link to an upstream neighboring node based on the identified donor beam index, creates one or more second communication links to one or more downstream neighboring nodes based on the identified relay beam indexes, and creates a mesh network of the plurality of edge devices based on the established communication links.

Communication system and method for operating a 5G mesh network for service continuity

An edge device that includes first antenna arrays at donor side and second antenna arrays at service side of the edge device, and a processor that obtains wireless connectivity enhanced information from a central cloud server based on a position of the edge device, where the wireless connectivity enhanced information is provided for a first user equipment (UE) and a second UE, and includes selected initial access information to accelerate a UE-specific beam alignment for each of the first UE and the second UE and connectivity to a corresponding base station from the edge device bypassing an initial access-search on the edge device. The processor receives a first donor beam associated with a first wireless carrier network (WCN) from a first base station, and receives a second donor beam associated with a second WCN from a second base station via the one or more first antenna arrays.

Edge device and method for handling service for multiple service providers

An edge device includes an antenna array and a sensor that senses a surrounding area of the edge device. The edge device further includes control circuitry that detects a user in the surrounding area of the edge device, tracks the detected first user in the surrounding area of the edge device based on the sensor, selects a first radiation pattern from a plurality of radiation patterns for a first beam of radio frequency (RF) signal based on a distance of the tracked user from the edge device, where the first radiation pattern is associated with a first communication range of the edge device, and controls the first antenna array to direct the first beam of RF signal in a first direction of the tracked first user, where the first beam of RF signal has the selected first radiation pattern and a signal strength greater than a first threshold.

Edge device and method for sensor-assisted beamforming

A first edge device includes a processor that captures and communicates position information of the first edge device and a time-of-day. Based on the time-of-day and a specific initial access information, the processor sets: a first beam index for an uplink communication and a second beam index for a downlink communication, a specific physical cell identity indicating a first base station to which the first edge device is to be connected, a first wireless carrier network (WCN) from amongst a plurality of different WCNs at the edge device, and a beam configuration to service one or more user equipment in a surrounding area of the first edge device.

Central cloud server and edge devices assisted high speed low-latency wireless connectivity

An edge device includes a first antenna array, control circuitry, and a sensing radar communicatively coupled to the control circuitry, where the sensing radar senses a surrounding area of the edge device. The control circuitry concurrently communicates two different beams of radio frequency (RF) signals to two user equipment (UEs) from two portions of the first antenna array based on the sensed surrounding area of the edge device by the sensing radar. The sensing radar and the first antenna array employ mutually isolated frequencies for the sensing and the communication, respectively.

Dual function edge device and method for accelerating ue-specific beamforming

A communication system includes a first edge device that obtains timing information at a first time instant from a radio access network (RAN) node or a central cloud server. The timing information is indicative of a unique system frame number or a sub-frame of the unique system frame number that is to be received at the first edge device. The first edge device detects the unique system frame number or the sub-frame of the unique system frame number at a second time instant. The first edge device executes a switching event in which a new communication link is established with a second edge device neighboring the first edge device. The new communication link corresponds to a change triggered in a mesh network to maintain a continuity in uplink and downlink communication between one or more UEs and the RAN node via the mesh network.

A communication apparatus that includes an antenna array comprising a plurality of antenna elements, a plurality of thermoelectric devices distributed across the plurality of antenna element of the antenna array, each of the plurality of thermoelectric devices covers a different subset of a plurality of subsets of the plurality of antenna elements, and a processor coupled to the antenna array and the plurality of thermoelectric devices. The processor detects variation in power consumption in the plurality of antenna elements of the antenna array on a basis of a change in a performance state of the plurality of antenna elements, and controls the plurality of thermoelectric devices to substantially equalize a temperature associated with the plurality of antenna elements for substantial equalization of the performance state of the plurality of antenna elements, where the plurality of thermoelectric devices is controlled based on the detected variation in the power consumption.

Communication apparatus and method for adaptive cooling of antenna elements

An edge device that includes one or more first antenna arrays at a donor side of the edge device, and one or more second antenna arrays at a service side of the edge device. The edge device obtains wireless connectivity enhanced information from a central cloud server. The edge device receives a first donor beam associated with a first wireless carrier network (WCN) from a first base station via the one or more first antenna arrays and receives a second donor beam associated with a second WCN from a second base station. The edge device receives two or more time division duplex (TDD) patterns from two or more base stations of different service providers, finds a common TDD pattern for the received two or more TDD patterns, and follows the common TDD pattern for switching RF signals between different WCNs of different service providers for uplink and downlink communication.

An edge device includes an antenna array having a first portion and one or more second portions different from the first portion. The edge device further includes control circuitry that controls the first portion of the antenna array to sense a surrounding area of the edge device, detect a first user equipment (UE) in the surrounding area of the edge device, and track the detected first UE in the surrounding area of the edge device. The control circuitry further controls the one or more second portions of the antenna array to direct a first beam of radio frequency (RF) signal in a first direction of the tracked first UE.

A communication system that includes a processor to control switch from a primary communication path to a secondary communication path based on a presence of signal obstruction in the primary communication path, the primary communication path is between a radio access network (RAN) node and at least one UE via a first set of edge devices, the secondary communication path is between the RAN and the at least one UE via a second set of edge devices. The processor further decreases a gain of an active path, which corresponds to the primary communication path, until the active path is dormant, and increases a gain of a dormant path, which corresponds to the secondary communication path, until the dormant path is active, the decrease in the gain of the active path and the increase in the gain of the dormant path is based on the control of the switch.

Communication system and method for operating 5G mesh network for enhanced coverage and ultra-reliable communication

A road-side unit (RSU) device receives a first request from a vehicle that moves along a travel path. The vehicle includes an edge device. A second request is communicated to an inference server based on the received first request. The second request includes an input feature corresponding to sensing information of the vehicle. A response is received from the inference server based on the communicated second request. The response includes wireless connectivity enhanced information including specific initial access information, and the specific initial access information enables the RSU devices to bypass an initial access search on the RSU device, and direct at least one specific beam of radio frequency (RF) signal to the edge device of the vehicle based on the wireless connectivity enhanced information.

Communication system and method for high-reliability low-latency wireless connectivity in mobility application

Provided is a communication system that includes a road-side unit (RSU) device. The RSU device receives a first connection request from a vehicle as the vehicle moves along a travel path, communicates a first request to an inference server based on the received first connection request, receives a response from the inference server based on the communicated first request. The response includes specific initial access information that enables the RSU device to bypass an initial access search. The RSU device, directs one or more specific beams of radio frequency (RF) signals to service a first edge device of one or more edge devices of the vehicle on a basis of the received response, and dynamically partition one or more antenna arrays at a service side of the RSU device into a plurality of sub-arrays to establish independent communication channels with a plurality of vehicles including the vehicle.

Communication system and method for high-speed low-latency wireless connectivity in mobility application

An edge device includes an antenna array and a sensor that senses a surrounding area of the edge device. The edge device further includes control circuitry that detects a first user in the surrounding area of the edge device sensed by the sensor, tracks the detected first user in the surrounding area of the edge device based on the sensor, controls the first antenna array to direct a first beam of radio frequency (RF) signal in a first direction of the tracked first user, detects and tracks a second user concurrently with the first user in the surrounding area of the first edge device based on the sensor, and updates the control of the first antenna array to direct a second beam of RF signal in a second direction towards the second user concomitant to the directed first beam of RF signal in the first direction towards the first user.

A first edge device includes a processor that communicates position information of the first edge device and a time-of-day. Based on the time-of-day and a specific initial access information, the processors sets: a first beam index for an uplink communication and a second beam index for a downlink communication, a specific physical cell identity indicating a first base station to which the first edge device is to be connected, a first wireless carrier network (WCN) from amongst a plurality of different WCNs at the edge device, and a beam configuration to service one or more user equipment in a surrounding area of the first edge device. The processor obtains control signals from the central cloud server and configures parameters of amplifier gains and phase responses associated with a first antenna array or a second antenna array of the first edge device, based on the obtained control signals.

A communication system includes a central cloud server that decreases a gain of a currently active path, which corresponds to a primary communication path between a radio access network (RAN) node and one or more user equipment (UEs) via a first set of edge devices, until the currently active path becomes dormant. A gain of a dormant path, corresponding to a secondary communication path is increased until the dormant path becomes a new active path. Further, at least one edge device of the second set of edge devices is caused to transmit one or more beams of radio frequency (RF) signals in one or more specific directions towards one or more new neighboring nodes to establish the secondary communication path that is used as a backup communication path between the RAN node and the one or more UEs via a second set of edge devices different from the first set of edge devices.

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Saratoga, CA, United States of America

Venkat Kalkunte