Abstract: LIDAR system and method for determining a classification of a window blockage. Emitter of emission unit emits a first illumination beam to illuminate at a first AOI a first blockage region of a window blockage of an optical window of LIDAR system. Emitter emits a second illumination beam to illuminate at a second AOI a second blockage region of window blockage, second blockage region at least partially overlapping first blockage region. Detector of sensing unit receives first blockage reflection of first illumination beam, and receives second blockage reflection of second illumination beam, first blockage reflection having first reflection intensity, and second blockage reflection having second reflection intensity. Processor determines classification of window blockage, based on first reflection intensity of first blockage reflection and first AOI of first illumination beam, and based on second reflection intensity of second blockage reflection and second AOI of second illumination beam.

Abstract: For example, a first STA may be configured to transmit to a second STA a message including a first value to indicate an available memory size at the first STA at a beginning of a TXOP, and a second value to indicate a maximal length of an A-MPDU transmission during the TXOP; to receive an initial A-MPDU from the second STA during the TXOP, a length of the initial A-MPDU is not longer than the first value; to determine a capacity value based on a current available memory size at the first STA, the capacity value to indicate whether the second STA is to be allowed to send to the first STA a subsequent A-MPDU having a length which is not longer than the second value; and to transmit to the second. STA an Ack including a buffer capacity field including the capacity value.

Abstract: For example, an apparatus may include a video encoder configured to encode video data into a parallel plurality of encoded video streams, the parallel plurality of encoded video streams including the video data encoded according to a respective plurality of different video bitrates; a selector configured to select, based on one or more parameters corresponding to a condition of a wireless communication link, a selected encoded video stream from the parallel plurality of encoded video streams; and a radio to transmit the selected encoded video stream over the wireless communication link.

Abstract: For example, a first STA may be configured to transmit to a second STA a message including a first value to indicate an available memory size at the first STA at a beginning of a TXOP, and a second value to indicate a maximal length of an A-MPDU transmission during the TXOP; to receive an initial A-MPDU from the second STA during the TXOP, a length of the initial A-MPDU is not longer than the first value; to determine a capacity value based on a current available memory size at the first STA, the capacity value to indicate whether the second STA is to be allowed to send to the first STA a subsequent A-MPDU having a length which is not longer than the second value; and to transmit to the second. STA an Ack including a buffer capacity field including the capacity value.

Abstract: For example, an apparatus may include a video encoder configured to encode video data into a parallel plurality of encoded video streams, the parallel plurality of encoded video streams including the video data encoded according to a respective plurality of different video bitrates; a selector configured to select, based on one or more parameters corresponding to a condition of a wireless communication link, a selected encoded video stream from the parallel plurality of encoded video streams; and a radio to transmit the selected encoded video stream over the wireless communication link.

Abstract: For example, a first STA may be configured to transmit to a second STA a message including a first value to indicate an available memory size at the first STA at a beginning of a TXOP, and a second value to indicate a maximal length of an A-MPDU transmission during the TXOP; to receive an initial A-MPDU from the second STA during the TXOP, a length of the initial A-MPDU is not longer than the first value; to determine a capacity value based on a current available memory size at the first STA, the capacity value to indicate whether the second STA is to be allowed to send to the first STA a subsequent A-MPDU having a length which is not longer than the second value; and to transmit to the second. STA an Ack including a buffer capacity field including the capacity value.

Abstract: A communication device configured to operate in a Multiple-input Multiple-output (MIMO) operation mode and Single-input Single output (SISO) operation mode and operation mode switching method are described. The communication device can include a transceiver associated with a first antenna, and configured to wirelessly communicate via the first antenna using a first communication technology; a second antenna associated with a second communication technology different from the first communication technology; and a controller coupled to the transceiver. The controller can be configured to: determine communication information corresponding to the first and the second communication technologies; and control the communication device to switch an operation mode of the communication device between the MIMO operation mode and the SISO operation mode based on the determined communication information.

Abstract: For example, a first STA may be configured to transmit to a second STA a message including a first value to indicate an available memory size at the first STA at a beginning of a TXOP, and a second value to indicate a maximal length of an A-MPDU transmission during the TXOP; to receive an initial A-MPDU from the second STA during the TXOP, a length of the initial A-MPDU is not longer than the first value; to determine a capacity value based on a current available memory size at the first STA, the capacity value to indicate whether the second STA is to be allowed to send to the first STA a subsequent A-MPDU having a length which is not longer than the second value; and to transmit to the second STA an Ack including a buffer capacity field including the capacity value.

Abstract: A communication device configured to operate in a Multiple-input Multiple-output (MIMO) operation mode and Single-input Single output (SISO) operation mode and operation mode switching method are described. The communication device can include a transceiver associated with a first antenna, and configured to wirelessly communicate via the first antenna using a first communication technology; a second antenna associated with a second communication technology different from the first communication technology; and a controller coupled to the transceiver. The controller can be configured to: determine communication information corresponding to the first and the second communication technologies; and control the communication device to switch an operation mode of the communication device between the MIMO operation mode and the SISO operation mode based on the determined communication information.

Abstract: For example, a first STA may be configured to transmit to a second STA a message including a first value to indicate an available memory size at the first STA at a beginning of a TXOP, and a second value to indicate a maximal length of an A-MPDU transmission during the TXOP; to receive an initial A-MPDU from the second STA during the TXOP, a length of the initial A-MPDU is not longer than the first value; to determine a capacity value based on a current available memory size at the first STA, the capacity value to indicate whether the second STA is to be allowed to send to the first STA a subsequent A-MPDU having a length which is not longer than the second value; and to transmit to the second STA an Ack including a buffer capacity field including the capacity value.

Abstract: Some demonstrative embodiments include apparatuses, devices, systems and methods of communicating a non-data Physical Layer Convergence Procedure (PLCP) Protocol Data Unit (PPDU). For example, an apparatus may include circuitry and logic configured to cause a wireless station to transmit a non-data PPDU; and to transmit a control frame separated from the non-data PPDU by a Reduced Inter-Frame Space (RIFS).

Abstract: Devices and methods are provided to modify block acknowledgement (BA) and/or block acknowledgement response (BAR) control frames to allow for signalling in the reverse direction (RD) process. The new BA and/or BAR control frame uses previously unused fields that are ignored in directive multi-gigabit (DMG) and enhanced DMG (EDMG) networks. The unused fields are repurposed to include a RD Grant (RDG) and an indication that an aggregated media access control (MAC) protocol data unit (MPDU) (A-MPDU) will follow (the indication is referred to as a More PPDU). The change in the BA and/or BAR frame(s) eliminates the need to send a quality of service (QoS) null frame that is typically sent with the BA and/or BAR frame(s), which improves the efficiency of the RD protocol.

Abstract: A docking station and a method for establishing a wireless connection to a device in which the docking station is configured to use the distance between the device and the docking station in the admission and retention control decision. This effectively prevents the wireless docking session from initiating, or drops an existing session, when the user is determined to be outside of the effective work area as determined by the docking station.

Abstract: Techniques for interference mitigation in directional multi-gigabit networks are described. In one embodiment, for example, an apparatus may comprise logic, at least a portion of which is in hardware, the logic to send, from a source device, a first reverse direction grant (RDG) indicating that a sink device may transmit to the source device, detect interference with a received sink device data transmission at the source device, select a grant deferral period, and upon conclusion of the grant deferral period, send a second RDG indicating that the sink device may transmit to the source device. Other embodiments are described and claimed.

Abstract: Some demonstrative embodiments include devices, systems and/or methods of communicating aggregate data units. For example, a device may include a wireless communication unit to communicate an aggregate data unit including a plurality of data units in an increasing order of sequence numbers assigned to the data units, such that a first data unit having a first sequence number always precedes a second data unit having a second sequence number, greater than the first sequence number.

Abstract: A docking station and a method for establishing a wireless connection to a device in which the docking station is configured to use the distance between the device and the docking station in the admission and retention control decision. This effectively prevents the wireless docking session from initiating, or drops an existing session, when the user is determined to be outside of the effective work area as determined by the docking station.

Abstract: Some demonstrative embodiments include apparatuses, devices, systems and methods of communicating a non-data Physical Layer Convergence Procedure (PLCP) Protocol Data Unit (PPDU). For example, an apparatus may include circuitry and logic configured to cause a wireless station to transmit a non-data PPDU; and to transmit a control frame separated from the non-data PPDU by a Reduced Inter-Frame Space (RIFS).

Abstract: Some demonstrative embodiments include devices, systems and/or methods of communicating aggregate data units. For example, a device may include a wireless communication unit to communicate an aggregate data unit including a plurality of data units in an increasing order of sequence numbers assigned to the data units, such that a first data unit having a first sequence number always precedes a second data unit having a second sequence number, greater than the first sequence number.

Abstract: Some demonstrative embodiments include devices, systems and/or methods of communicating aggregate data units. For example, a device may include a wireless communication unit to communicate an aggregate data unit including a plurality of data units in an increasing order of sequence numbers assigned to the data units, such that a first data unit having a first sequence number always precedes a second data unit having a second sequence number, greater than the first sequence number.

Abstract: Some demonstrative embodiments include devices, systems and/or methods of communicating aggregate data units. For example, a device may include a wireless communication unit to communicate an aggregate data unit including a plurality of data units in an increasing order of sequence numbers assigned to the data units, such that a first data unit having a first sequence number always precedes a second data unit having a second sequence number, greater than the first sequence number.