Abstract:
A cellular telephone device includes: an external connection unit that communicates with a PC; a wireless communication unit that wirelessly communicates with a base station; and a control unit that controls the external connection unit to send data received by the wireless communication unit to the PC or controls the wireless communication unit to send data received by the external connection unit to the base station, in which the control unit controls the wireless communication unit to send information relating to resource assignment corresponding to a data transfer rate of the external connection unit to the base station.
Abstract:
Video processing method, a video display device and its timing controller can support video signals having different types of resolutions from ones set in advance without a special circuit identifying the resolution. Timing controller of video display device generates a first horizontal reference signal (HRST_start) indicating start of an active period of a data enable signal and a second horizontal reference signal (HRST_end) indicating end of the active period from an input video signal. Next, timing controller generates control signals (HSP, STB, POL, VCK, and VOE) based on the number of clocks from the rise of the first and second horizontal reference signals (HRST_start and HRST_end) and on signal generation timing values (α, A to D) predetermined for each control signal supplied to drivers.
Abstract:
A method of producing aerial photograph data is provided which is capable of positively utilizing stored photograph data and an image of a desired object included in a photographed image. The method includes a step of determining a distance between a position of a virtual photographic principal point (virtual photographic principal point position) obtained by the use of spatial position information of a target point and spatial direction of a view vector and a position of an actual photographic principal point (actual photographic principal point position) of each of a plurality of aerial photographs to automatically select a specific aerial photograph, and a step of extracting, from the specific aerial photograph, a selected image having the target point arranged at a predetermined position therein.
Abstract:
In the method of obtaining captures images, there is overlaps in images in the flight direction and in a direction (cross direction) that crosses the flight direction. A predetermined number of the captured images containing overlapping sections that include a target point are selected out of the obtained images in the flight direction and/or the cross direction. From the overlap sections of these captured images, selected images are obtained by selecting image sections within a specific range that contains the target point. Using the flight direction and the cross direction as axes for a matrix, the selected images are arranged to create an aerial photograph data set.
Abstract:
A defect inspection is performed for each of glass substrates by a surface defect detector. The distance from the center of the glass substrate to a detected defect, as a radius of a nonmagnetic region to be formed circular, is recorded along with an ID assigned to the glass substrate. Such defect information is recorded in a defect list using a printer or recorded in an RFID tag using an RFID writer. The defect list or the RFID tag is attached to a glass-substrate case. Each glass substrate and its defect information are in one-to-one correspondence and are provided to a customer as a magnetic disk manufacturer. Based on the obtained defect information, the customer manufactures magnetic disks each being a discrete track recording medium having the nonmagnetic region formed at the position where the defect is present.
Abstract:
An image processing apparatus includes an exposure glass on which an original is to be placed; a scanner cover to openably cover the exposure glass from above, a tip of the scanner cover is lifted to open the exposure glass; a document scanner to read a two-dimensional objet of the original on the exposure glass and output read image data; a camera unit to capture an image of a three-dimensional object of the original on the exposure glass and output captured image data; photography lighting equipment including movable light source unit to illuminate the three-dimensional object put when the camera unit captures the image of the three-dimensional object; an image forming unit to convert the read image data and the captured image data to form a printed image on a recording medium; and a setting controller to control a reading process, a capturing process, and an image forming process.
Abstract:
A defect inspection is performed for each of glass substrates by a surface defect detector. The distance from the center of the glass substrate to a detected defect, as a radius of a nonmagnetic region to be formed circular, is recorded along with an ID assigned to the glass substrate. Such defect information is recorded in a defect list using a printer or recorded in an RFID tag using an RFID writer. The defect list or the RFID tag is attached to a glass-substrate case. Each glass substrate and its defect information are in one-to-one correspondence and are provided to a customer as a magnetic disk manufacturer. Based on the obtained defect information, the customer manufactures magnetic disks each being a discrete track recording medium having the nonmagnetic region formed at the position where the defect is present.
Abstract:
A gate start pulse signal for a next frame is output at (m−n+k+1)-th line from a beginning of display period for a previous frame in a case where m denotes the number of the display lines, n denotes the number of extra outputs from the gate driver at a side from which the scan is performed, k denotes a positive integer, and a scan of a gate driver is performed from a side at which there is an extra output from the gate driver; k pulses of gate driver clock signals are output during a vertical blank period; and input of a gate driver clock signal is restarted from a beginning of a display period for the next frame.
Abstract translation:在m表示显示行的数量的情况下,从前一帧的显示周期开始的第(m-n + k + 1)行输出下一帧的门起始脉冲信号,n表示 从执行扫描的一侧的栅极驱动器的额外输出的数量,k表示正整数,并且从栅极驱动器的额外输出的一侧执行栅极驱动器的扫描; 在垂直空白期间输出k脉冲的栅极驱动器时钟信号; 并且从下一帧的显示周期的开始重新开始栅极驱动器时钟信号的输入。
Abstract:
Disclosed is a semiconductor device wherein device characteristics are improved by applying a strong stress to a channel region. The semiconductor device includes a semiconductor substrate, a gate insulating film formed over a first plane of the semiconductor substrate, a gate electrode formed over the gate insulating film, a gate sidewall insulating film formed over the sidewall of the gate electrode, source/drain diffusion layer regions into which impurities are implanted, the source/drain diffusion layer regions being adjacent to a channel region formed in the semiconductor substrate below the gate electrode, and a stress applying film formed over the source/drain diffusion layer regions except over the upper part of the gate electrode; and recesses or protrusions are formed in the region where the source/drain diffusion layer regions are formed over the first plane of the semiconductor substrate.