A signal processing method includes the following operations: receiving an input signal and analyzing the input signal to generate a plurality of bit codes by a signal receiving circuit; temporarily storing a first part of the plurality of bit codes according to a time sequence by a shift register and starting a decoder when the shift register is full; and performing a boundary calibration according to the first part of the plurality of bit codes by the decoder when the first part of the plurality of bit codes meets a decoding table rule and a boundary detection rule.

An image processor is described. The image processor includes a two dimensional shift register array that couples certain ones of its array locations to support execution of a shift instruction. The shift instruction is to include mask information. The mask information is to specify which of the array locations are to be written to with information being shifted. The two dimensional shift register array includes masking logic circuitry to write the information being shifted into specified ones of the array locations in accordance with the mask information.

An image display device includes: a display unit that includes a plurality of display lines; a detection unit that detects presence of an input of a predetermined position information signal; a signal output control unit that instructs whether or not to output a position information signal in accordance with a detection result by the detection unit; a signal output unit that outputs the position information signal in a case of being instructed; a display direction switching control unit that instructs switching of a vertical display direction to the display unit in accordance with the detection result; an image data input unit that receives image data including data for each display line; and an image data transmission switching unit that switches a transmission order of the data for each display line in accordance with the detection result, and transmits to the display unit the image data.

A system for dynamically adjusting content for an interaction impairment can include a data provider, an end-user electronic device, a user identification module, and a data adjustment module. The data provider can be capable of providing access to electronic data. One or more characteristics of the electronic data can be incompatible with an impairment of an impaired user. The end-user electronic device can be configured to allow the impaired user to interact with electronic data. The user identification module can be configured to identify an identity of the impaired user and/or the impairment of the impaired user. The data adjustment module can be configured to automatically adjust incompatible characteristics of the electronic data prior to presentation by the end-user electronic device. This adjustment can increase the ability of the impaired user to utilize the electronic data with the end-user electronic device.

An apparatus and a method. The apparatus includes an image representation unit configured to receive a sequence of frames generated from events sensed by a dynamic vision sensor (DVS) and generate a confidence map from non-noise events; and an image denoising unit connected to the image representation unit and configured to denoise an image in a spatio-temporal domain. The method includes receiving, by an image representation unit, a sequence of frames generated from events sensed by a DVS, and generating a confidence map from non-noise events; and denoising, by an image denoising unit connected to the image representation unit, images formed from the frames in a spatio-temporal domain.

A microcomputer which constitutes an ECU transmits a start/stop signal and a crank angle signal to an analog input circuit. The analog input circuit is activated when the start/stop signal is received. The A/D converter converts a sensor signal into a digital signal. The digital processor detects a peak value of the digital signal. A counter restarts a counting operation when the crank angle signal is received. A data register sends a detected data of the peak value as a specified information adding by a count value and an information of the crank angle signal to the microcomputer. The microcomputer acquires the crank angle of the specified information by computing the crank angle from the detected data.

The present invention refers to a method for operating an active input element and a corresponding input element, input arrangement and computer program product, comprising the steps: a) set value C of clock counter to 0 (S2); b) increase value C of clock counter by 1 and shift data in shift register (5) by one Bit, when detecting a clock information (S3); c) compare (S4) value C of clock counter with a cycle length CLL, and return to step b) if comparison result is negative or proceed to step d) if comparison result is positive; d) read data (D.sub.FIFO) from shift register (S5); e) compare (S6) said read data (D.sub.FIFO) from shift register (5) with predetermined first data value (D1), and proceed to step f) if comparison result is positive or proceed to step a) if comparison result is negative; f) write data (D.sub.IE) derived from analog input device (S) into shift register (S7) and return to step a).

A touch display and method for controlling the same are provided. The touch display includes a gate driver circuit, a touch sensor and a display panel. The method includes: when the touch sensor detects no touch input signal, the gate driver circuit outputs a plurality of first gate signals to the display panel at a first frequency; and when the touch sensor detects a touch input signal, the gate driver circuit outputs a plurality of second gate signals to the display panel at a second frequency. The second frequency is smaller than the first frequency.

An image processor is described. The image processor includes a two dimensional shift register array that couples certain ones of its array locations to support execution of a shift instruction. The shift instruction is to include mask information. The mask information is to specify which of the array locations are to be written to with information being shifted. The two dimensional shift register array includes masking logic circuitry to write the information being shifted into specified ones of the array locations in accordance with the mask information.

An image processor is described. The image processor includes a two dimensional shift register array that couples certain ones of its array locations to support execution of a shift instruction. The shift instruction is to include mask information. The mask information is to specify which of the array locations are to be written to with information being shifted. The two dimensional shift register array includes masking logic circuitry to write the information being shifted into specified ones of the array locations in accordance with the mask information.