Abstract: Systems and methods are provided for flow control in a wireless communication system. In certain aspects, an apparatus for wireless communications comprises an interface configured to receive, from a wireless node, one or more parameters specifying a memory at the wireless node, and an indication of an amount of free memory space in the memory at the wireless node. The apparatus also comprises a processing system configured to determine a number of data units to be transmitted to the wireless node based on the indication of the amount of free memory space and the one or more parameters, wherein the interface is further configured to output data units for transmission to the wireless node, wherein a number of the data units output for transmission to the wireless node equals the determined number of data units.

Abstract: A two-stage technique for compressing radar data is disclosed in which, in the first stage, Constant False Alarm Rate (CFAR) compression is conducted using a median calculated from at least one dimension of radar data, which is then used to determine filtering threshold values for all dimensions of the radar data. The radar data is then compressed by filtering the radar data based on the filtering threshold values. In the second stage, peak detection is then performed on the compressed data to identify detected objects (targets). These and other embodiments are described herein.

Abstract: Certain aspects of the present disclosure generally relate to wireless communications and, more particularly, systems and methods for compression and transmission of video data using a joint source channel transmission.

Abstract: Certain aspects of the present disclosure provide techniques that may help reduce sector sweep time. In some cases, the techniques involve generating frames for transmission during a sector sweep procedure, each frame including one or more address fields being determined based on at least one of a transmitter address of the apparatus or a receiver address of an intended recipient of the generated frames and having fewer bits than at least one of the transmitter address or the receiver address.

Abstract: A technique is disclosed for reducing interference in a communication system including a plurality of wireless devices. A first device transmits an RTS-TRN frame including a Request to Send (RTS) portion and a first beam training sequence to determine whether a communication medium is available to communicate with a second device. If the communication medium is available, the second device transmits a CTS-TRN frame including a Clear to Send (CTS) portion and a second beam training sequence. One or more neighboring devices that receive the RTS-TRN frame and/or the CTS-TRN frame configure their respective antennas to generate one or more nulls aimed at the first and second devices when transmitting signals, as long as the first and second devices are communicating based on a duration field in the RTS-TRN frame and/or CTS-TRN frame. This reduces interference at the first and/or second devices.

Abstract: A technique is disclosed for reducing interference in a communication system including a plurality of wireless devices. A first device transmits an RTS-TRN frame including a Request to Send (RTS) portion and a first beam training sequence to determine whether a communication medium is available to communicate with a second device. If the communication medium is available, the second device transmits a CTS-TRN frame including a Clear to Send (CTS) portion and a second beam training sequence. One or more neighboring devices that receive the RTS-TRN frame and/or the CTS-TRN frame configure their respective antennas to generate one or more nulls aimed at the first and second devices when transmitting signals, as long as the first and second devices are communicating based on a duration field in the RTS-TRN frame and/or CTS-TRN frame. This reduces interference at the first and/or second devices.

Abstract: Systems and methods are provided for flow control in a wireless communication system. In certain aspects, an apparatus for wireless communications comprises an interface configured to receive, from a wireless node, one or more parameters specifying a memory at the wireless node, and an indication of an amount of free memory space in the memory at the wireless node. The apparatus also comprises a processing system configured to determine a number of data units to be transmitted to the wireless node based on the indication of the amount of free memory space and the one or more parameters, wherein the interface is further configured to output data units for transmission to the wireless node, wherein a number of the data units output for transmission to the wireless node equals the determined number of data units.

Abstract: In certain aspects of the present disclosure an apparatus for wireless communication comprises a processing system and an interface. The processing system is configured to generate a preamble and a first data portion of a frame, wherein the preamble includes information for receiving the frame at a device, receive a message from the device, wherein the message provides feedback of reception of the first data portion by the device, and generate a second data portion of the frame. The interface is configure to output the preamble and the first data portion of the frame for transmission to the device, and output the second data portion of the frame for transmission to the device, wherein transmission of the first and second data portions of the frame are separated in time by a gap, and the message is received within the gap.

Abstract: A technique is disclosed for reducing interference in a communication system including a plurality of wireless devices. A first device transmits an RTS-TRN frame including a Request to Send (RTS) portion and a first beam training sequence to determine whether a communication medium is available to communicate with a second device. If the communication medium is available, the second device transmits a CTS-TRN frame including a Clear to Send (CTS) portion and a second beam training sequence. One or more neighboring devices that receive the RTS-TRN frame and/or the CTS-TRN frame configure their respective antennas to generate one or more nulls aimed at the first and second devices when transmitting signals, as long as the first and second devices are communicating based on a duration field in the RTS-TRN frame and/or CTS-TRN frame. This reduces interference at the first and/or second devices.

Abstract: A technique is disclosed for reducing interference in a communication system including a plurality of wireless devices. A first device transmits an RTS-TRN frame including a Request to Send (RTS) portion and a first beam training sequence to determine whether a communication medium is available to communicate with a second device. If the communication medium is available, the second device transmits a CTS-TRN frame including a Clear to Send (CTS) portion and a second beam training sequence. One or more neighboring devices that receive the RTS-TRN frame and/or the CTS-TRN frame configure their respective antennas to generate one or more nulls aimed at the first and second devices when transmitting signals, as long as the first and second devices are communicating based on a duration field in the RTS-TRN frame and/or CTS-TRN frame. This reduces interference at the first and/or second devices.

Abstract: Certain aspects of the present disclosure provide techniques that may help reduce sector sweep time. In some cases, the techniques involve generating frames for transmission during a sector sweep procedure, each frame including one or more address fields being determined based on at least one of a transmitter address of the apparatus or a receiver address of an intended recipient of the generated frames and having fewer bits than at least one of the transmitter address or the receiver address.

Abstract: A universal serial bus (USB) communication system, the system includes: (a) a wired communication component, which is adapted to receive a received USB transfer; (b) a processor which is adapted to process the received USB transfer to provide a transmittable wireless USB transfer; and (c) a wireless communication component, which is adapted to transmit the transmittable wireless USB transfer; wherein the system is adapted to transmit a portion of the transmittable wireless USB transfer before the entire received USB transfer is received.

Abstract: An intermediate device, including: (a) a wired USB communications component; (b) a wireless USB communications component; (c) a memory unit; (d) a processor, connected to the wired USB communications component, to the wireless USB communications component and to the memory unit, and (e) a USB class compliant driver emulator constructed in response to at least one characteristic of the USB device.

Abstract: A method for managing multiple components, the method includes: selectively preventing components from generating interrupt requests; selectively preventing writing component interrupt requests to an interrupt request list; selectively generating interrupt requests, by an interrupt request manager, in response to a content of the interrupt request list and in response to an interrupt request manager policy; wherein the interrupt requests are associated with an exchange of information over a wireless network.

Abstract: A method for exchanging information over a wireless network, the method includes: (i) providing a distributed media access controller and a high communication layer component, the high communication layer component includes a high communication layer hardware and a high communication layer software; and (ii) utilizing the distributed media access controller and the high communication layer component to exchange information. The utilizing includes applying a centralized media access control scheme and by the high communication layer component, and maintaining at least one endpoint data structure by the high communication layer software while maintaining at least one transfer operational list data structure by the high communication layer hardware. An apparatus that includes a distributed media access controller and a high communication layer component.

Abstract: A method for expanding a range of an ultra wide band wireless network, the method includes: (i) providing a first network and an external device, the first network includes multiple devices that receive ultra wide band wireless transmissions from each other, the external device is capable of receiving a transmission from a first device of the first network but not capable of receiving a transmission from a second device of the first network; and (ii) allowing the first device to relay transmissions between the external device and the second device. An ultra wide band device that includes: (i) a receiver, adapted to receive transmissions from members of a first network and from an external device not capable of receiving transmissions from a second device of the first network, and (ii) a transmitter, adapted to transmit information to members of the first network and to the external device; wherein the device is adapted to relay transmission from the second device of the first network to the external device.

Abstract: A device and method for mapping information streams to MAC layer queues, the method includes: utilizing a distributed media access control scheme to determine a configuration of the network; and adjusting an adjustable filter such as to map application parameters to the MAC layer queues, in response to the configuration of the network.

Abstract: A static PLA not requiring a device for leakage compensation for its minterms. Once evaluation of inputs is commenced, the evaluation is completed and the results stored in a latch even if the clock is halted during the evaluation. A dummy minterm and output line provide a timing signal to reinitiate precharge. No conduction paths to ground exist at the output lines of the array once evaluation is completed.