Abstract: Embodiments include systems and methods for allocating time to a plurality of devices in the network of a piconet controller. Embodiments comprise selectively directing a steerable antenna beam of the piconet controller to a plurality of devices in succession during a polling process to receive time allocation requests from one or more of the devices. Subsequent to the polling process, a grant procedure is performed wherein a device is granted permission to transmit in a subsequent time interval. Also during the grant process, one or more devices are instructed to receive from the device granted permission to transmit. The polling process and the grant process occur in the same superframe.

Abstract: Apparatuses, systems, and methods for transmitting data frames over data networks with varying Interframe Space (IFS) times are disclosed. A system embodiment may comprise a mobile computing device with an integrated wireless networking card. The card may receive a transmission of several data frames. While receiving the several data frames, the networking card may determine that a response will need to be transmitted back to the sending station after the sending station sends the last frame of data. After a short period of delay following the end of the last transmitted frame the card may immediately begin transmitting a preamble of the response, while still demodulating and processing data of the transmitted frames. Upon finishing data processing of the remaining frames, the card may generate the content for the rest of the response, such as a block acknowledgment.

Abstract: Apparatuses, systems, and methods that align channel filters for dual tuners are disclosed. An embodiment may comprise an IC having two tuners. Each tuner may have a low-noise amplifier, a mixer with a local oscillator, and channel filter. To perform a channel filter alignment, a bandwidth controller may cross-couple the local oscillator of each tuner to the input of the mixer of the opposite tuner. The bandwidth controller may adjust the frequencies of the local oscillators to produce different configuration tone frequencies at the outputs of the mixers, which are inputs to the channel filters. The bandwidth controller may then determine an amplitude difference between two separate measurements of a channel filter output and, based on a comparison of the measurements with predicted values, increment or decrement the filter bandwidth for each tuner and store parameters for the channel filters which create the largest signal amplitudes.

Abstract: Methods and apparatuses that utilize a serial bus, such as a universal serial bus (USB), for communications between a communications network, a computing device, and an auxiliary device are disclosed. Some embodiments comprise methods handling sideband communications using serial buses. One or more of the embodiments comprise differentiating in-band data from out-of-band data, transferring information of the in-band data between a communications network and a computing device, and transferring information of the out-of-band data between the communications network and an auxiliary device. Some embodiments comprise an apparatus having a communications network interface, an auxiliary device interface, and a computing device interface. Of the interfaces, one or more may be a serial bus interface. The apparatus may differentiate between in-band and out-of-band data and communicate information of the out-of-band data to an auxiliary device. In some embodiments, the apparatus may also transfer control information.

Abstract: Methods and arrangements to persist a trusted time for a protected clock based upon a non-trusted but persistent time source are disclosed. Embodiments may comprise an embedded device, which may be hardware, software, firmware, and/or other logic, to maintain a trusted time in a protected clock. The embedded device may initialize the protected clock by obtaining a trusted time from a trusted time source such as a network server. The embedded device then maintains the trusted time in the event of a power loss to the protected clock by monitoring a time differential between the protected clock and a non-trusted system clock. Many embodiments also employ the protected clock without a battery backup to advantageously save manufacturing costs and space, while maintaining the trusted time in the event of a power loss by relying on a battery backup for the non-trusted system clock. Other embodiments are disclosed and claimed.

Abstract: In some embodiments, a method for mitigating interference between wireless networks is disclosed. A network communications controller, such as a piconet controller that is new to an area, can monitor for and receive inter-network transmission from adjacent networks and the controller can monitor the received transmission and detect a synchronization parameter of the adjacent networks. The parameter can be an inter-network synchronization beacon that is transmitter on a narrowband channel. The controller can select an unoccupied narrowband channel to transmit inter-network synchronization information and the selected an unoccupied wideband channel to conduct intra-network transmissions. The wideband channel can be associated with the narrowband channel. Other embodiments are also disclosed.

Abstract: Apparatuses, systems, and methods that reduce the amount of time for recovering multiple beam-formed links in a wireless network are disclosed. An embodiment may, e.g., be a mobile computing device with wireless beamforming communications capabilities. Upon establishing links with multiple stations, the mobile computing device may sense that the link quality or strength is degrading for several of the links. The laptop may transmit a single forward-transmission sector sweep (FWD-TXSS) to initiate recovery of the links. The other stations previously linked to the laptop may detect the degradation the links and start monitoring for the single FWD-TXSS. The receiving devices may each perform reverse-transmission sector sweeps (REV-TXSS), in sequence, to reestablish beam-formed links with the laptop without requiring multiple forward-transmission sector sweeps.

Abstract: Embodiments include systems and methods for RFI mitigation in a wireless computing environment. In one embodiment, a platform determines RFI information of the platform by listening with a receiver of a transceiver of the platform when the transmitter of the transceiver is quiescent. The platform derives Frequency Domain Weights from the RFI information and transmits the Frequency Domain Weights to a Wireless Access Point (WAP). In the transmitter and receiver of the WAP, the Frequency Domain Weights are applied to signals received and to be transmitted.

Abstract: Apparatuses, methods, systems, and computer program products to process QoS packets of wireless traffic without explicit control negotiations are disclosed. An embodiment may comprise a mobile computing device with wireless communications capabilities. The mobile computing device may be a client that associates or connects with an access point or communicates another client device, such as a peripheral device with wireless capabilities. The mobile computing device may monitor wireless packet traffic being transmitted from the mobile computing device. For example, the mobile computing device may monitor the packets being transmitted from a video streaming application to the peripheral device, which may comprise an LCD monitor that has wireless communications capabilities. The mobile computing device may mark the packets of the video stream as QoS packets even though the video streaming application may not do so, and place the marked packets in a QoS queue for priority processing.

Abstract: Methods and arrangements to rapidly adjust the trim of a watercraft are disclosed. More specifically, embodiments comprise a sensor to quickly detect changes in the trim angle of a watercraft and a driver adapted to effect rapid changes in the trim angle. For example, many embodiments include large hydraulic pumps and hydraulic connections to adjust the angle of a trim adjuster such as the angle of trim tabs, an outboard motor, or a stern drive. Some embodiments implement high torque electric motors or high capacity pneumatic systems. The drivers may, for example, effect changes in the angle of the trim adjuster within two seconds. In one embodiment, the driver may effect a change in the trim angle within one second or less.

Abstract: Apparatuses, systems, and methods that employ conditional probabilities to calculate phase errors are disclosed. For a received signal, the embodiments may develop several phase error estimates relative to each point of a constellation, the number and location of points of the constellation depending on the modulation technique of the received signal. In addition to calculating the phase error estimates, the embodiments may also calculate weights, or probabilities, associated with each of the estimates. The embodiments may use the estimates and the weights to calculate a composite phase error estimate. The composite phase error estimate may be used to correct the received signal and eliminate or reduce the impact of the phase error.

Abstract: Apparatuses, systems, methods, and computer program products to save power in peer-to-peer communication devices associated with wireless communication networks are disclosed. Embodiments generally comprise wireless communications devices. A device may associate or connect with an access point and communicate with another device also connected to the access point. The devices may establish a direct link as part of a tunneled direct link system (TDLS) network. After establishing the direct link, the devices may negotiate a wakeup schedule, enabling both devices to enter power saving modes to conserve power. The devices may maintain the direct link while in power saving modes, enabling the devices to periodically exit the power saving modes and transfer buffered data.

Abstract: Methods and apparatuses for delaying execution of input/output (I/O) requests for solid state drives are contemplated. Some embodiments comprise receiving I/O requests for a solid state drive and calculating amounts of time based on characteristics of the requests, such as differences of the logical block addresses (LBAs) of the requests. The embodiments may then delay responses by the solid state drive for the requests. Calculating the amounts of time and delaying the responses by the amounts of time may allow the solid state drives to emulate the responses of various types of hard disk drives. Some embodiments comprise an apparatus for delaying execution of the I/O requests for solid state drives. The apparatuses may have numerous modules, such as a request receiver to receive the I/O requests, a calculation module to calculate the amounts of delay times, and a delay module to delay the responses of the I/O requests.

Abstract: A method is disclosed for interference mitigation which can include receiving a signal having a data component, an interfering component and a time period and creating a first plurality of digitized data that represents at least a portion of the interfering component. The method can also include generating a polynomial equation that is related to the at least a portion of the interfering component and generating a second plurality of digital data that represents a data vector of the received signal. The method can further subtract the polynomial equation from the received signal to cancel at least a portion of the interfering component to provide an interference mitigated signal representing the data component.

Abstract: A method is disclosed that includes receiving a signal having a data vector component and an interfering component and creating a first set of digitized data that represents the interfering component. The method can also generate a polynomial equation based on the first set of digitized data and generate a second set of digitized data that represents a data vector component of the received signal. The polynomial equation can be subtracted from the received signal to cancel at least a portion of the interfering component and provide an interference mitigated signal representing the data vector component. An error in the interference mitigated signal can be determined and the interference mitigated component can be recalculated based on the error. Other embodiments are also disclosed.

Abstract: Methods and arrangements to manage transparent windows are described herein. Embodiments may comprise logic such as hardware and/or code to select one or more windows to make transparent and to switching the active window between source and target windows via the position of the mouse. Many embodiments provide a right click, pop-up menu (i.e., pressing the right mouse button generates a pop-up menu), a pull-down menu, or a button associated with windows. These features may allow a user to select individual or all windows to be transparent. A transparent window provides some view of windows or objects below the transparent window while providing some view of the contents such as graphics and/or text in the transparent window. Embodiments may also include management logic such as hardware and/or code to facilitate selection of a transparent window to make the window active.

Abstract: Embodiments include systems and methods for frame tunneling in a wireless communications system comprising digital beam forming. Embodiments comprise a first and second frame control field with the second frame control field comprising a High Throughput Control (HTC) enabling field. If the HTC enabling field is enabled, then an HTC field is sent.

Abstract: In some embodiments, a method for auto-configuring a network is disclosed. The method can include communicating with at least one node in a processing complex, receiving node connection data from the at least one node querying a node to verify at least a portion of the node connection data, and auto-configuring system partitioning in response to the node connection data. In some embodiments, the method can also include verifying the node connection data by transmitting a request for a universally unique identifier and a node identifier. The node identifier can be associated with the universally unique identifier. The node identifier can be utilized in data transmitted between nodes.

Abstract: In some embodiments a method for managing processing components using a graphical user interface is disclosed. The method can include determining connection data of a processing system automatically by communicating with at least one node of the processing system, displaying the connection data on a graphical user interface, accepting a user selection via selectable buttons on the graphical user interface, where the selectable buttons representing selectable system operations for configuring operations of nodes. Based on the user selection the system can automatically perform system configuring. In some embodiments, the method can detect improper or malfunctioning connections and automatically provide a pop-up window that has a suggested remedy. Other embodiments are also disclosed.

Abstract: Hot water pipes, in areas with hard water, tend to fill with scale until they no longer pass enough water. De-scaling water pipes with acid is dangerous, expensive and damages the pipes. Ion exchange and reverse osmosis water softeners eliminate scale buildup in pipes, but are expensive. Embodiments of this invention provide a means of keeping an amount of the scale precipitate, created when water is heated, inside a housing by passing the hot water through a removal medium where the scale sticks to the surface. The removal medium can be placed inside the water heater or in a separate housing connected to the water heater; both configurations remove the precipitate from hot water; both save hot water pipes from scale accumulation.