Abstract: The solutions can include devices, systems and methods for facilitating wireless communication of narrowband devices within a communication range of wideband access points. An access point (AP) can be configured to communicate with one or more stations using a wideband preamble and to communicate with a first one or more devices via narrowband channels. The AP can establish a service period (SP) with the one or more stations for which the one or more stations and the AP pause communications over the wideband channels. The AP can receive, during the SP, one or more protocol data units from the first one or more devices over the one or more narrowband channels without the wideband preamble. The AP can forward, during the SP, data from the one or more protocol data units to a second one or more devices over the one or more narrowband channels.

Abstract: A wireless device can include a first radio configured to transmit over a first link and a second link of a first wireless band. The first radio can be configured to detect an OBSS communication on the first link of the first wireless band. The wireless device can perform coordinated link-switch (CLS) operations. The wireless device can be configured to operate as an access point (AP) for one or more stations of a wireless network or a station.

Abstract: A solution for providing improvements in performance of latency sensitive traffic, multi-link operation, link adaptation and in-device coexistence is disclosed. A device with a Wi-Fi transceiver and a second transceiver sharing at least one antenna can detect a burst of communications received by the second transceiver exceeding a time period allocated for second communications. The device can be in communication with a Wi-Fi AP to receive Wi-Fi communications. The device can determine, responsive to the detection, a schedule for the AP to transmit Wi-Fi communications to the device, the schedule comprising a burst limit of a first time period on a periodic basis of a second time period. The device can communicate the schedule to the access point.

Abstract: A first device includes at least one processor configured to communicate with the second device using a primary channel, detect occupation on the primary channel by a third device, and communicate with the second device using a secondary channel in response to the occupation by the third device. The secondary channel is chosen from a set of channels. The set of channels being determined at least partially in response to information or parameters exchanged during association of the first device and the second device.

Abstract: Some embodiments relate to a first device for communicating with a second device. The first device includes configured to communicate data to the second device using a resource. The resource has a bandwidth of less than a total bandwidth of a primary channel of a plurality of links, and the data is low latency data or control data.

Abstract: A device can detect an energy level of an OBSS communication. The device can determine an identity associated with the OBSS communication. The device can determine a threshold associated with the identity of the OBSS communication. The device can compare the energy level of the OBSS communication to the threshold. The device can transmit a message simultaneous to the OBSS communication on a same link as the OBSS communication. The message can be transmitted based on the comparison of the threshold to the energy level of the OBSS communication.

Abstract: A device can include a first radio configured to transmit over a first link and a second link of a first wireless band. The first radio can be configured to detect an OBSS communication on the first link of the first wireless band. The first radio can be configured to transmit over the second link of the first wireless band, responsive to the detection of the OBSS communication on the first link of the first wireless band. The device can be configured to operate as an access point (AP) for one or more stations of a wireless network.

Abstract: Systems, devices, methods, and computer-readable storage media of channel switching. One device for channel switching includes a memory and at least one processor. The at least one processor is configured to communicatively couple with one or more client devices, using one of a primary bandwidth channel or a secondary bandwidth channel and transmit a first trigger on at least the primary bandwidth channel to at least a first client device of the one or more client devices based on at least one of (i) a bandwidth availability (ii) a quality of service parameter, or (iii) a secondary bandwidth switching capability, wherein the first client device switches from the primary bandwidth channel to the secondary bandwidth channel in response to the first trigger.

Abstract: A method includes transmitting, at an access point configured to transmit data over an unlicensed band, a single message prior to transmitting data over a channel of the unlicensed band. The method further includes receiving, at the access point, a plurality of responses from a plurality of user equipment acknowledging the single message in response to the single message.

Abstract: A method includes transmitting, at an access point configured to transmit data over an unlicensed band, a single message prior to transmitting data over a channel of the unlicensed band. The method further includes receiving, at the access point, a plurality of responses from a plurality of user equipment acknowledging the single message in response to the single message.

Abstract: The present disclosure provides systems and methods for decoupling downlinks and uplinks between user equipment (UE) and base stations. Briefly described, in architecture, one embodiment of the system comprises UE (e.g., cellular telephones, mobile devices, etc.) for independently establishing an uplink (UL) and a downlink (DL). One embodiment of the method comprises the steps of establishing a DL to an optimal DL base station (BS), and establishing an UL to an optimal UL BS.

Abstract: A method includes transmitting, at an access point configured to transmit data over an unlicensed band, a single message prior to transmitting data over a channel of the unlicensed band. The method further includes receiving, at the access point, a plurality of responses from a plurality of user equipment acknowledging the single message in response to the single message.

Abstract: A method includes detecting, using a WiFi access point, channel use data indicating traffic on a plurality of channels of an unlicensed LTE band in a wireless network. The method further includes providing the channel use data to a Long Term Evolution (LTE) access point. The method further includes selecting, using the LTE access point, a channel for use in transmitting data by the LTE access point from among the plurality of channels based on the channel use data from the WiFi access point. The method further includes providing, from the LTE access point, an indication of an upcoming transmission configured to transmit data on the channel to the WiFi access point. The method further includes broadcasting one or more messages from the WiFi access point to one or more WiFi nodes, the one or more messages configured to prevent the WiFi nodes from transmitting on the channel.

Abstract: Devices and methods for determining timing offsets between wireless devices are provided. One method includes transmitting, from a first device, a request for timing data to first user equipment and receiving a response. The timing data is indicative of a frame timing associated with a reference time for both the first device and a second device. The method further includes determining a timing offset between the frame timing for the first device and a frame timing for the second device based on the timing data. Another method includes receiving a reference time from a timing reference device, applying a timestamp to frame timing data for the first device, receiving frame timing data from the second device time-stamped based on the reference time, and comparing the timing data to determine a time offset between the devices.

Abstract: A method includes transmitting, at an access point configured to transmit data over an unlicensed band, a single message prior to transmitting data over a channel of the unlicensed band. The method further includes receiving, at the access point, a plurality of responses from a plurality of user equipment acknowledging the single message in response to the single message.

Abstract: A method includes detecting, using a WiFi access point, channel use data indicating traffic on a plurality of channels of an unlicensed LTE band in a wireless network. The method further includes providing the channel use data to a Long Term Evolution (LTE) access point. The method further includes selecting, using the LTE access point, a channel for use in transmitting data by the LTE access point from among the plurality of channels based on the channel use data from the WiFi access point. The method further includes providing, from the LTE access point, an indication of an upcoming transmission configured to transmit data on the channel to the WiFi access point. The method further includes broadcasting one or more messages from the WiFi access point to one or more WiFi nodes, the one or more messages configured to prevent the WiFi nodes from transmitting on the channel.

Abstract: A method includes transmitting, at an access point configured to transmit data over an unlicensed band, a single message prior to transmitting data over a channel of the unlicensed band. The method further includes receiving, at the access point, a plurality of responses from a plurality of user equipment acknowledging the single message in response to the single message.

Abstract: A method includes detecting, using a WiFi access point, channel use data indicating traffic on a plurality of channels of an unlicensed LTE band in a wireless network. The method further includes providing the channel use data to a Long Term Evolution (LTE) access point. The method further includes selecting, using the LTE access point, a channel for use in transmitting data by the LTE access point from among the plurality of channels based on the channel use data from the WiFi access point. The method further includes providing, from the LTE access point, an indication of an upcoming transmission configured to transmit data on the channel to the WiFi access point. The method further includes broadcasting one or more messages from the WiFi access point to one or more WiFi nodes, the one or more messages configured to prevent the WiFi nodes from transmitting on the channel.

Abstract: Systems and methods for adaptive access and handover configuration based on historical data are provided. Access and handover decisions are optimized in a multiple radio access technology environment using historical data associated with network performance. Future needs for access and handovers are predicted using historical data associated with the user and historical data associated with network performance. Performance metrics are received periodically or continuously from nodes in one or more networks at a centralized controller. The centralized multi RAT controller correlates these performance metrics and determines predicted handovers for a user device. Preparations for the predicted handovers can then be made prior to the handover event.

Abstract: A method includes transmitting, at an LTE device configured to transmit data over an unlicensed band, first synchronization data over a first frequency channel of the unlicensed band during a timeframe. The method further includes transmitting, at one of the first LTE device or a second LTE device, second synchronization data over a second frequency channel of the unlicensed band during the same timeframe. The data transmissions of at least one of the first LTE device or the second LTE device are coordinated based on the synchronization data.