Abstract: An oscillating heat pipe (OHP) device that comprise a body having a top face, a bottom face and at least one side face, a plurality of hollow OHP channels formed internally within the body, and an oscillating heat pipe (OHP) flushing duct system. The flushing duct system is formed in at least one of a body top face, a bottom face and at least one side face of an OHP device. The flushing duct system fluidly connects one or more of a plurality of OHP channels formed internally within the OHP device to an ambient environment of the device. The flushing duct system comprising at least one welding receptacle.

Abstract: A method of estimating a temperature of a component of a wind turbine is provided, comprising, during a calibration period, receiving measurements of the temperature of the component and of one or more corresponding operational parameter; and calculating, using the measurements coefficients of a model of the temperature of the component. The model relates temperature at a current time to a temperature a preceding time, Tn?1. The model is segregated into separate bins based on wind speed or power generated by the wind turbine. The method further comprises using the model to estimate a temperature of the wind turbine.

Abstract: A method of estimating a temperature of a component of a wind turbine is provided, comprising, during a calibration period, receiving measurements of the temperature of the component and of one or more corresponding operational parameter; and calculating, using the measurements coefficients of a model of the temperature of the component. The model relates temperature at a current time to a temperature a preceding time, Tn?1. The model is segregated into separate bins based on wind speed or power generated by the wind turbine. The method further comprises using the model to estimate a temperature of the wind turbine.

Abstract: There is disclosed a system for transmitting digital data with error detection, the system comprising a sender, configured to receive source data and to send transfer data, and a receiver configured to receive the transfer data and to output result data, wherein the sender is further configured to receive the source data, to numerically multiply the source data by an integer number greater than 2, and to output the multiplied source data as the transfer data, and wherein the receiver is further configured to receive the transfer data, to check if dividing the transfer data by the integer number results in an integer result, and, if the checking fails, to output an error indication, and, if the checking succeeds, to output the transfer data divided by the integer number as the result data. Also, a corresponding method is disclosed.

Abstract: An electronic display system includes a display disposed in a housing. An electronic lens assembly is disposed in the housing proximate to and cooperating with the display. The electronic lens assembly includes one or more layers including a mirror element layer, a reflective polarizer layer cooperating with the mirror element layer, a rotator cell layer cooperating with the reflective polarizer layer, and a linear polarizer layer cooperating with the rotator cell layer and disposed opposite the reflective polarizer layer. A controller cooperates with the display and the electronic lens assembly and is configured to adjust the rotator cell layer of the electronic lens assembly between a reflective state in a first mode and a semi-transparent display state in a second mode.

Abstract: Disclosed herein are systems, methods, and devices for detecting a polarization of eyewear worn by a viewer gazing at an electronic display. The detection disclosed herein may be employed to control and adjust the electronic display to compensate for the effects of polarization. The systems disclosed herein incorporate an embodiment with two IR sources, and an embodiment employing a single IR source coupled with electro-optical devices.

Abstract: A display system includes a display device disposed in a housing. A mirror element is disposed in the housing proximate to and cooperating with the display device. A lens is disposed proximate to and in a coplanar arrangement with the mirror element. The display device is positioned on an angle in a non-planar arrangement with the mirror element and the lens to reduce matrix scatter in the display device.

Abstract: A rear display system includes a display device disposed in a housing to generate an image on a projection surface. A mirror element is disposed proximate the display device and a lens is disposed proximate the mirror element. A tilt mechanism for adjustably positioning the mirror element relative to the display device between a first position and at least one second position includes a mounting assembly having at least one arm receiving and engaging one or more portions of the mirror element, a biasing element positioned between the mirror element and the mounting assembly and an adjustment apparatus having an indexing device configured to adjustably position the mirror element between the first position and the at least one second position relative to the display device.

Abstract: Disclosed herein are devices, methods and systems for implementing an electronic display with a dead-front appearance with a combination of polarizing devices. Specifically, the various permutations and combinations disclosed herein each include a linear polarizer, an active polarizer, and various combinations of linear and curved lenses, each being driven by light sourced from a backlight display.

Abstract: Disclosed herein are devices, methods and systems for implementing an electronic display with a dead-front appearance with a combination of polarizing devices. Specifically, the various permutations and combinations disclosed herein each include a linear polarizer, an active polarizer, and various combinations of linear and curved lenses, each being driven by light sourced from a backlight display.

Abstract: Switching interference is a primary artifact which affects the accuracy of arc detectors. To address switching interference, conventional arc detectors employ computationally intensive techniques which are often designed specifically for a target application. Thus, conventional arc detectors require a significant amount of hardware to accurately detect arc faults, which can increase costs of the power systems and prohibit wide deployment of arc detectors. With improved signal processing, a unique method for arc detection can accurately detect arc faults efficiently while tolerate switching interference from an inverter of the power system. Specifically, the method provides accurate but efficient arc detection by using a small Fast Fourier Transform with coherent sampling that is accomplished with a common clock generator in combination with signal conditioning. The overall system implementing the method is also programmable to suit a variety of target applications.

Abstract: Disclosed herein are systems, methods, and devices for detecting a polarization of eyewear worn by a viewer gazing at an electronic display. The detection disclosed herein may be employed to control and adjust the electronic display to compensate for the effects of polarization. The systems disclosed herein incorporate an embodiment with two IR sources, and an embodiment employing a single IR source coupled with electro-optical devices.

Abstract: In safety-critical computer systems, fault tolerance is an important design requirement. Data buses for on-chip interconnection in these processor-based systems are exposed to risk arising from faults in the interconnect itself or in any of the connected peripherals. To provide sufficient fault tolerance, a safety node is inserted between an upstream master section and a downstream slave section of an on-chip bus hierarchy or network. The safety node provides a programmable timeout monitor for detecting a timeout condition for a transaction. If timeout has occurred, the safety node transmits a dummy response back to the master, assumes the role of a master, and waits for the slave device to respond. Furthermore, the safety node rejects any subsequent requests by any of the masters on the upstream section by transmitting a dummy response to those subsequent requests, thus enabling these masters to avoid deadlock or stall.

Abstract: A backlight assembly for a gauge of an automotive display panel and a method of illuminating a gauge of an automotive display panel is provided. The backlight assembly includes a lightpipe having a U-shaped configuration and a reflective dish surrounding the lightpipe. The lightpipe and the reflective dish are disposed on a mounting plate of the gauge above a liquid crystal display (LCD). Additionally, the backlight assembly includes one or more top firing light emitting diodes (LEDs) disposed adjacent to the lightpipe. The LEDs emit light to the lightpipe which in turn transmits light to the reflective dish. The reflective dish reflects back or disperses the light evenly to illuminate the graphic applique of the gauge.

Abstract: Switching interference is a primary artifact which affects the accuracy of arc detectors. To address switching interference, conventional arc detectors employ computationally intensive techniques which are often designed specifically for a target application. Thus, conventional arc detectors require a significant amount of hardware to accurately detect arc faults, which can increase costs of the power systems and prohibit wide deployment of arc detectors. With improved signal processing, a unique method for arc detection can accurately detect arc faults efficiently while tolerate switching interference from an inverter of the power system. Specifically, the method provides accurate but efficient arc detection by using a small Fast Fourier Transform with coherent sampling that is accomplished with a common clock generator in combination with signal conditioning. The overall system implementing the method is also programmable to suit a variety of target applications.

Abstract: A control system to generate a yaw torque of an all-wheel drive vehicle comprises a brake control module 18. The brake control module 18 determines the desired powertrain torque 44 for the vehicle 10 based upon a plurality of factors including available torque from the powertrain. The brake control module 18 determines a first torque 44 and a second torque 26, wherein the first torque 44 and the second torque 26 are combined to provide the total desired yaw torque 49 of the vehicle 10. The first torque 44 is generated between wheels of the vehicle 10 by applying torque 44 from the powertrain 14 to different wheels 21 of the vehicle 10 and the second torque 26 is generated by applying different braking torque from a braking system 16 of the vehicle 10.

Abstract: An apparatus for providing power at a vehicle turret powered by a turret power source is provided. A power module is configured to be coupled to the turret power source such that the power module receives power from the turret power source. A coupling device is configured to couple the power module to the turret power source such that the power module receives the power from the turret power source via the coupling device. One or more power outlets are configured to provide power to an electronic device coupled to one of the power outlets. The power module and coupling device rotate in conjunction with the vehicle turret when the vehicle turret rotates.

Abstract: In safety-critical computer systems, fault tolerance is an important design requirement. Data buses for on-chip interconnection in these processor-based systems are exposed to risk arising from faults in the interconnect itself or in any of the connected peripherals. To provide sufficient fault tolerance, a safety node is inserted between an upstream master section and a downstream slave section of an on-chip bus hierarchy or network. The safety node provides a programmable timeout monitor for detecting a timeout condition for a transaction. If timeout has occurred, the safety node transmits a dummy response back to the master, assumes the role of a master, and waits for the slave device to respond. Furthermore, the safety node rejects any subsequent requests by any of the masters on the upstream section by transmitting a dummy response to those subsequent requests, thus enabling these masters to avoid deadlock or stall.

Abstract: In an example embodiment, a circuit is provided that includes a pre-fetch unit configured to pre-fetch instructions and data from a flash used by a microprocessor and decode the instructions and data without storing and accessing an address history, wherein the pre-fetcher is aware of the microprocessor's instruction set and performs parallel direct decode of each instruction accessed from the flash. In an example embodiment, method for pre-fetching instructions from a flash to a microprocessor is provided that includes reading a line of program code from the flash, assigning the instructions or data in the line to a thread in a hopper maintained in a cache, decoding the instructions to detect branches, and initiating a fetch from the flash if the target instruction is not found in one of the hoppers in the cache, building and maintaining predicted threads of instructions most likely to be executed by the microprocessor.

Abstract: A backlight assembly for a gauge of an automotive display panel and a method of illuminating a gauge of an automotive display panel is provided. The backlight assembly includes a lightpipe having a U-shaped configuration and a reflective dish surrounding the lightpipe. The lightpipe and the reflective dish are disposed on a mounting plate of the gauge above a liquid crystal display (LCD). Additionally, the backlight assembly includes one or more top firing light emitting diodes (LEDs) disposed adjacent to the lightpipe. The LEDs emit light to the lightpipe which in turn transmits light to the reflective dish. The reflective dish reflects back or disperses the light evenly to illuminate the graphic applique of the gauge.