Abstract: A computerized-system to provide an economic-feasibility-analysis for an urban-planning-model, is provided herein. An economic-viability module, in the computerized-system is operated for: receiving an urban-planning-model; importing the urban-planning-model into a visual programming language and environment; retrieving urban-site-related metadata from the urban-planning-model; according to the retrieved urban-site-related metadata, converting the urban-planning-model, to a parametric model, by a first pretrained machine learning model. The parametric model is having a plurality of model-parameters. Retrieving a preconfigured environment-set-of-parameters of an environment in a preconfigured distance radius from the received urban-planning-model. Forwarding the preconfigured environment-set-of-parameters to one or more economic-calculators.

Abstract: Beamforming is used in wireless link communication to improve a wireless link through increased channel capacity and diversity by focusing a beam, such as from multiple antennas, in the direction of the receiver. Where the receiver may be capable of measurements relevant to beamforming, more particularly measurements that vary or are otherwise dependent upon changes in beamforming settings, reference to such measurements and corresponding beamforming settings may improve performance. In this Disclosure, a sink device transmits a data stream to a source device, wherein said data stream comprises the position of the sink device. The data stream may further comprise data such as link quality, heading information, or discretized location. The source device stores this data in a memory.

Abstract: Beamforming is used in wireless link communication to improve a wireless link through increased channel capacity and diversity by focusing a beam, such as from multiple antennas, in the direction of the receiver. Where the receiver may be capable of measurements relevant to beamforming, more particularly measurements that vary or are otherwise dependent upon changes in beamforming settings, reference to such measurements and corresponding beamforming settings may improve performance. In this Disclosure, a sink device transmits a data stream to a source device, wherein said data stream comprises the position of the sink device. The data stream may further comprise data such as link quality, heading information, or discretized location. The source device stores this data in a memory.

Abstract: Beamforming is used in wireless link communication to improve a wireless link through increased channel capacity and diversity by focusing a beam, such as from multiple antennas, in the direction of the receiver. Where the receiver may be capable of measurements relevant to beamforming, more particularly measurements that vary or are otherwise dependent upon changes in beamforming settings, reference to such measurements and corresponding beamforming settings may improve performance. In this Disclosure, a sink device transmits a data stream to a source device, wherein said data stream comprises the position of the sink device. The data stream may further comprise data such as link quality, heading information, or discretized location. The source device stores this data in a memory.

Abstract: Beamforming is used in wireless link communication to improve a wireless link through increased channel capacity and diversity by focusing a beam, such as from multiple antennas, in the direction of the receiver. Where the receiver may be capable of measurements relevant to beamforming, more particularly measurements that vary or are otherwise dependent upon changes in beamforming settings, reference to such measurements and corresponding beamforming settings may improve performance. In this Disclosure, a sink device transmits a data stream to a source device, wherein said data stream comprises the position of the sink device. The data stream may further comprise data such as link quality, heading information, or discretized location. The source device stores this data in a memory.

Abstract: Provided are a method and apparatus for an error tolerance aware data retention scheme in a storage device for multi-scale error tolerant data. A mapping of retention priorities to sectors of the storage units maps higher retention priorities to sectors having a higher retention capability. A data stream and retention metadata for the data stream indicate retention priorities for segments of the data stream. Segments of the data stream having less error tolerance are mapped to higher retention priorities than segments of the data stream having greater error tolerance. The mapping of retention priorities is used to determine a sector having a retention priority matching a retention priority of a segment of the data stream indicated in the retention metadata. The segment of the data stream is stored in the determined sector.

Abstract: Some demonstrative embodiments include devices, systems and methods of quality of experience indication. For example, an apparatus may include a radio configured to communicate encoded multimedia data during a session over a wireless communication channel; and a Quality of Experience (QoE) estimator configured to determine at least one QoE indicator corresponding to the session, and to provide the QoE indicator to a session manager of the session, the QoE estimator configured to determine the QoE indicator based at least on a mean opinion score (MOS) corresponding to the encoded multimedia data, and a channel quality parameter corresponding to the wireless communication channel.

Abstract: Provided are a method and apparatus for an error tolerance aware data retention scheme in a storage device for multi-scale error tolerant data. A mapping of retention priorities to sectors of the storage units maps higher retention priorities to sectors having a higher retention capability. A data stream and retention metadata for the data stream indicate retention priorities for segments of the data stream. Segments of the data stream having less error tolerance are mapped to higher retention priorities than segments of the data stream having greater error tolerance. The mapping of retention priorities is used to determine a sector having a retention priority matching a retention priority of a segment of the data stream indicated in the retention metadata. The segment of the data stream is stored in the determined sector.

Abstract: A method for low latency data transfers between a wireless root device and a wireless endpoint device connected through a wireless peripheral-interconnect bus. The method comprises setting the wireless root device and the wireless endpoint device to operate in bi-directional low latency bus (BDLLB) mode; generating, by the wireless root device, a first data frame to be transmitted to the end-point device, wherein the first data frame includes at least a preamble, a block acknowledgment (ACK) frame and aggregation of a plurality of medium access control service data units (MSDUs) according to an order they received from a data link layer of the wireless peripheral-interconnect bus; and transmitting the first data frame to the wireless endpoint device over a wireless medium.

Abstract: Some demonstrative embodiments include devices, systems and methods of quality of experience indication. For example, an apparatus may include a radio configured to communicate encoded multimedia data during a session over a wireless communication channel; and a Quality of Experience (QoE) estimator configured to determine at least one QoE indicator corresponding to the session, and to provide the QoE indicator to a session manager of the session, the QoE estimator configured to determine the QoE indicator based at least on a mean opinion score (MOS) corresponding to the encoded multimedia data, and a channel quality parameter corresponding to the wireless communication channel.

Abstract: Some demonstrative embodiments include devices, systems and methods of to rate adaptation based on goodput. For example, an apparatus may include a packet selector to select at a first device a plurality of goodput packets from a plurality of received packets from a second device, the packet selector to select the plurality of goodput packets based on at least one selection parameter corresponding to the plurality of received packets; a band calculator to calculate a bit-rate band based on a dispersion of a goodput parameter corresponding to the plurality of goodput packets; and a feedback module to provide a bit-rate adaptation feedback to the second device based on the bit-rate band.

Abstract: Some demonstrative embodiments include devices, systems and methods of to rate adaptation based on goodput. For example, an apparatus may include a packet selector to select at a first device a plurality of goodput packets from a plurality of received packets from a second device, the packet selector to select the plurality of goodput packets based on at least one selection parameter corresponding to the plurality of received packets; a band calculator to calculate a bit-rate band based on a dispersion of a goodput parameter corresponding to the plurality of goodput packets; and a feedback module to provide a bit-rate adaptation feedback to the second device based on the bit-rate band.

Abstract: A method for enabling a low latency medium access control for an interconnect bus protocol over a wireless medium is provided. The method comprises constructing a wireless medium access control (WMAC) frame, wherein the WMAC frame includes a plurality of medium access control service data units (MSDUs) being aggregated according to their transmission order, the MSDUs include transaction layer packets generated by a component of the interconnect bus, wherein transmission of the WMAC frame over the wireless medium provides any one of an implied acknowledgment (ACK) mechanism and a block ACK mechanism.

Abstract: Various embodiments are generally directed to techniques to dynamically encode video based on channel quality and received video quality. An apparatus for dynamically encoding video includes a processor component; and a dynamic video encoder for execution by the processor component, the dynamic video encoder comprising a reference map generator to generate a reference map based on a channel quality corresponding to a plurality of encoded video frames to be transmitted over a channel, the reference map including indications of relationships between a plurality of video frames for purposes of encoding the plurality of video frames as the plurality of encoded video frames to increase a visual quality of the plurality of encoded video frames when transmitted over the channel and decoded.

Abstract: A method of determining proximity of Bluetooth/Bluetooth Low Energy (BT/BLE) devices, in a connectionless session includes executing a contiguity profile at a first device, the contiguity profile providing for connectionless proximity determination. The method further includes determining a proximity of a second device using Bluetooth/Bluetooth Low Energy (BT/BLE) protocol without establishing a Bluetooth/Bluetooth Low Energy (BT/BLE) connection to the second device.

Abstract: A device and method for transmitting data over a wireless network, based on a low latency interconnect bus protocol. The low latency interconnect bus protocol is a layered protocol containing a Wireless Medium Access Control (WMAC) layer for constructing a WMAC frame from the data, and a Wireless Physical (WPHY) layer for constructing a WPHY frame from the WMAC frame. The WMAC frame includes an aggregation of a plurality of MAC Service Data Units (MSDUs), and is capable of providing a reliable link by implementing an implied ACK and a block ACK. The WPHY frame is configured to provide a mechanism for a bi-directional communication between components; and the content of the WPHY frame is determined according to a communication state between two communicating components.