Abstract: An electronics system has a board with a thermal interface having an exposed surface. A thermoelectric device is placed against the thermal interface to heat the board. Heat transfers through the board from a first region where the thermal interface is located to a second region where an electronics device is mounted. The electronics device has a temperature sensor that detects the temperature of the electronics device. The temperature of the electronics device is used to calibrate an accelerometer and a gyroscope in the electronics device. Calibration data includes a temperature and a corresponding acceleration offset and a corresponding angle offset. A field computer simultaneously senses a temperature, an acceleration and an angle from the temperature sensor, accelerometer and gyroscope and adjusts the measured data with the offset data at the same temperature. The field computer provides corrected data to a controlled system.

Abstract: An electronics system has a board with a thermal interface having an exposed surface. A thermoelectric device is placed against the thermal interface to heat the board. Heat transfers through the board from a first region where the thermal interface is located to a second region where an electronics device is mounted. The electronics device has a temperature sensor that detects the temperature of the electronics device. The temperature of the electronics device is used to calibrate an accelerometer and a gyroscope in the electronics device. Calibration data includes a temperature and a corresponding acceleration offset and a corresponding angle offset. A field computer simultaneously senses a temperature, an acceleration and an angle from the temperature sensor, accelerometer and gyroscope and adjusts the measured data with the offset data at the same temperature. The field computer provides corrected data to a controlled system.

Abstract: An electronics system has a board with a thermal interface having an exposed surface. A thermoelectric device is placed against the thermal interface to heat the board. Heat transfers through the board from a first region where the thermal interface is located to a second region where an electronics device is mounted. The electronics device has a temperature sensor that detects the temperature of the electronics device. The temperature of the electronics device is used to calibrate an accelerometer and a gyroscope in the electronics device. Calibration data includes a temperature and a corresponding acceleration offset and a corresponding angle offset. A field computer simultaneously senses a temperature, an acceleration and an angle from the temperature sensor, accelerometer and gyroscope and adjusts the measured data with the offset data at the same temperature. The field computer provides corrected data to a controlled system.

Abstract: A technique of processing an image data for output on a digital image device that compresses (164) a portion of a received image data to a data frame (110) according to a predefined size that is optimized for output with a processor of the device. The portion of the image data that is defined by the data frame is outputted (166, 186) to another source, and for any empty bits in the data frame, a zero bit is inserted (174).

Abstract: A wireless communication device 100, peripheral accessories 104, 108, and corresponding methods are arranged and constructed to automatically operate the peripheral accessories 104, 108 by communicating network information to the wireless communication device so the device may locate and download, via a network 116, operating programs for use with the accessories.

Abstract: A technique of processing an image data for output on a digital image device that compresses (164) a portion of a received image data to a data frame (110) according to a predefined size that is optimized for output with a processor of the device. The portion of the image data that is defined by the data frame is outputted (166, 186) to another source, and for any empty bits in the data frame, a zero bit is inserted (174).

Abstract: A multi-configuration portable electronic device is provided. The device includes at least one processor, a first body element including at least one input, and a second body element including a display. The second body element is pivotally coupled to the first body element such that the device can be positioned into a plurality of physical configurations. In response to a change in the physical configuration of the device, there is a change in at least two of a mode of operation of the input device, a mode of operation of the display, and an active software application being executed by the processor. In a preferred embodiment, the physical configurations of the device include a portrait configuration in which the device functions as a wireless phone, and a landscape configuration in which the device functions as a text messaging pager, PDA, handheld computer, electronic organizer, or media player.

Abstract: A wireless communication device 100, peripheral accessories 104, 108, and corresponding methods are arranged and constructed to automatically operate the peripheral accessories 104, 108 by communicating network information to the wireless communication device so the device may locate and download, via a network 116, operating programs for use with the accessories.

Abstract: Method for the determination of lecithin concentration in crude oil. A sample of crude oil is admixed with a polar organic sample which does not dissolve lecithin, thus obtaining a suspension. The concentration of lecithin in the suspension is determined by the turbidimetric analysis, by measuring the transmitted light passed through the suspension. According to a preferred embodiment, a tungsten lamp provides the light to be transmitted through the suspension, the light passed being converted to Lux units by Luxmeter and expressed into concentration values of lecithin.