Abstract: A driving method of a solid-state imaging device including plural high-sensitivity pixels and plural low-sensitivity pixels that are arranged in mixed form in a manner of a two-dimensional array on a semiconductor substrate, the method including driving the solid-state imaging device in such a manner that an exposure period of the low-sensitivity pixels is set shorter than that of the high-sensitivity pixels.

Abstract: A CMOS image sensor is disclosed which can achieve reduction of the voltage used to read out signal charge and can achieve expansion of the dynamic range. A P-well region is formed on a semiconductor substrate, and an embedded photodiode, a transfer transistor, an amplification transistor, a selection transistor, a reset transistor, a floating diffusion and so forth are provided in the P-well region. Signal charge of the photodiode is transferred to the floating diffusion by operation of the transfer transistor. A substrate bias voltage in the form of a negative voltage is applied to the P-well region in synchronism with the charge transfer operation of the transfer transistor to control the potential balance between the photodiode and the transfer gate portion to reduce the voltage for charge transfer. Further, during charge storage of the photodiode, the substrate bias voltage is varied to modify the angle of the sensitivity curve to achieve expansion of the dynamic range.

Abstract: A method and apparatus are disclosed for measuring human movement of a test subject during a standard coordination and balance test. The test subject is placed in a selected test position, e.g. standing on one leg for a selected test period. A sensor device is attached to at least one body member of the test subject. The sensor generates and transmits a signal representative of movement of the body member during the test (hereinafter “the test”). The test subject is viewed through a viewfinder of a visual recorder. The recorder and sensor device are activated and generate image and sensor signals which are transmitted to an analyzer for determining the movement of the body members during the test. A coordination and balance score is calculated from the test based on the body movement, body member location and test time. The score is compared a standard associated with the test, and provides an indicator of the test subject's coordination and balance skill.

Abstract: An operability in performing an image correction process on a picked-up image of an object shot at approximately the same shooting angle is improved and a process time is shortened. A CPU in a cellular phone extracts the contour of the object from one of a plurality of picked-up images sequentially picked up in a sequential image pickup mode, and calculates correction data to be used in image correction based on the extracted contour. Thereafter, the CPU performs an image correction process on the plurality of picked-up images picked up sequentially to correct the distortion of the image of the object included in each picked-up image, using the calculated correction data.

Abstract: An automated RAW image processing method and system are disclosed. A RAW image and metadata related to the RAW image are obtained from a digital camera or other source. The RAW image and the related metadata are automatically processed using an Operating System service of a processing device to produce a resulting image in an absolute color space. The resulting image is then made available to an application program executing on the processing device through an application program interface with the Operating System service.

Abstract: An image capturing apparatus is provided having an image capturing device, an image compressing device, a recording device, a definition calculating device, and a residual recordable number calculating device. The image capturing device outputs a captured image. The image compressing device compresses the captured image using flexible compression. The recording device records the compressed captured image into a memory medium. The definition calculating device calculates a definition by summing the absolute value of higher frequency components in the compressed captured image before the higher frequency components are rounded off. The residual recordable number calculating device calculates a residual recordable number of images in the memory medium using the definition of a standard image, the file size of a standard image, and a residual recordable amount of the memory medium.

Abstract: An imaging station for taking a plurality of digital images of a subject under a plurality of illuminating conditions and storing and analyzing the digital images, includes a housing, containing the digital image capturing apparatus, like a camera or video recorder, a computer for processing the image data and one or more displays for displaying images of the person. The imaging station aids in controlling lighting during image capture and may be used to optimally position the subject for imaging. The computer may be programmed to conduct various image processing functions and may be networked to allow image sharing. A display which may be provided on the exterior of the housing allows an operator to visualize the subject and to control the imaging process. The imaging station may be used for teaching purposes.

Abstract: A photographing apparatus comprises an imaging sensor, a memory, and a display unit. The imaging sensor obtains image data. The memory stores the image data. The display unit indicates a still picture based on the image data and a white balance setting picture on the still picture. The white balance setting picture is used for setting a white balance gain in a white balance adjustment.

Abstract: An image capturing apparatus is provided having an auto-focusing device and an image displaying device. The auto-focusing device focuses a lens on a photographing object automatically. The image displaying device displays an input image which corresponds to the photographing object and is updated periodically in a display, and displays an ornament image which covers all or part of the circumference of the input image in the display. The image displaying device displays the parts of the input image superimposed by the ornament image before said auto-focusing device finishes focusing the lens on a photographing object due to the ornament image semi-transparency, and displays the ornament image superimposed with opaque on parts of the input image after said auto-focusing device has focused the lens on a photographing object.

Abstract: A shading compensation device which compensates for shading which differs for respective colors. A pixel counter counts co-ordinate positions of image data which is supplied from a black level correction section. A relative position calculation section compares the image data with compensation value tables and calculates relative co-ordinate positions of pixels which are objects of processing. A compensation value interpolation section refers to the compensation value tables, which are stored for the respective colors in a compensation value table memory, and interpolates shading compensation values for the relative co-ordinate positions calculated by the relative position calculation section. A multiplier multiplies the image data which is the objects of processing with the new shading compensation values obtained by the interpolation processing. Thus, shading-compensated image data is generated.

Abstract: Vision system and method. The system includes a vision system, including: a camera, a processor and memory, coupled to the camera, and an EtherCAT interface, coupled to the processor and memory, possibly contained in a chassis, and operable to couple to an EtherCAT network that provides for deterministic low-latency communication between the vision system and devices coupled to the EtherCAT network. The vision system may be configurable to operate as any of: an EtherCAT master device, an EtherCAT slave device, or a TCP/IP Ethernet device. One or more additional vision systems may couple to the EtherCAT network. The vision systems may be synchronized using an EtherCAT distributed clock technique, time-based triggered, and/or event triggered, via the EtherCAT network, e.g., in a multi-view vision, collaborative processing, control, I/O, or video servoing application, e.g., using an EtherCAT deterministic low latency closed loop feedback system, including processing, control, or I/O devices.

Abstract: A physical quantity distribution detecting apparatus includes a sensor array in which a plurality of unit sensors for sensing physical quantity are two-dimensionally arranged in a matrix; and an analog-to-digital conversion unit that includes a plurality of comparators for comparing an analog signal read from the unit sensor with a reference signal, the analog-to-digital conversion unit converting a digital signal by measuring a period of time or measuring a signal corresponding to the period of time of each comparison output of the plurality of comparators. Each of the plurality of comparators includes at least one capacitor element connected between a signal line and a constant-voltage line.

Abstract: When there is created one composite image comprising an arrangement of a plurality of associated captured small images, an intended small image needs to be extracted from the composite image. When a plurality of small images are arranged to create one composite image, pixel data on the first row of a first small image is stored at a first address of DRAM. Pixel data on the second row and later are sequentially stored at specified addresses of DRAM. Likewise, second through ninth small images are stored at specified addresses of DRAM. In this manner, one composite image is created. When the first small image is selected to be extracted, pixel data on the first row of the first small image is read from the first address of DRAM. Pixel data on the second row is read from the second address. Pixel data on the third row and later are sequentially read by incrementing addresses. The present invention can be applied to a digital still camera.

Abstract: A system and method of operating a sensor array are provided. The method includes adjusting the reverse bias voltage for the photodiode of at least one pixel in the sensor array based on previous output values of one or more pixels in the array, algorithms, and/or user inputs.

Abstract: A shooting-information-detecting section detects shooting information from an image pick-up section. A motion-detecting section detects a motion direction of an image on an overall screen based on a motion direction of the image pick-up section contained in the shooting information. A processing-region-setting section sets a processing region in at least any one of a predicted target image and a peripheral image thereof, which correspond to a target pixel in the predicted target image. A processing-coefficient-setting section sets a motion-blur-removing-processing coefficient that corresponds to the motion direction detected in the motion-detecting section. A pixel-value-generating section generates a pixel value that corresponds to the target pixel based on a pixel value of a pixel in the processing region set in the processing-region-setting section and the processing coefficient set in the processing-coefficient-setting section. Motion-blur-removing processing can be accurately performed.

Abstract: A camera control circuit stores an image picked up by a CCD into an internal memory. A CPU of a main processor circuit gives an instruction of reading out image data stored in the internal memory of the camera control circuit through buses and a slave access controller. The main processor circuit displays the image data which is read out on an LCD and performs other processings. With the above construction, in the electronic equipment having an image pickup function of a camera, it is possible to reduce time for image transfer from the camera control circuit to the main processor circuit.

Abstract: A pixel portion of an image pick-up device having a pixel portion of pixels arranged in matrix converting a subject image to an electric signal, and a scanning unit of sub-scanning circuits outputting a video signal, a first scanning circuit selecting a pixel position in a first matrix direction and a second scanning circuit selecting a pixel position in a second direction intersecting the first direction. One of the first and second scanning circuits shares the signal lines. The image pick-up device includes a scanning control circuit controlling the first and second scanning circuits. The pixel area structures of the pickup device are uniform, the wirings are uniform, and the vertical and horizontal driving systems and an output system are uniform. Thus, pixel signals outputted from two output systems have no property differences and image quality is improved.

Abstract: An extendable pivot shaft mechanism of a camera for pivoting a rotatable grip on a camera body is provided to allow the rotatable grip both to rotate about a rotational axis and to move along the rotational axis relative to the camera body, the extendable pivot shaft mechanism includes an inner shaft, a middle cylinder and an outer cylinder which are concentrically arranged about the rotational axis. The inner shaft and the outer cylinder are fixed to one and the other of the grip and the camera body, respectively. One of the inner shaft and the outer cylinder serves as a rotatable shaft element which is rotatable about the rotational axis relative to the middle cylinder. The other of the inner shaft and the outer cylinder serves as a linearly movable shaft element which is linearly movable along the rotational axis relative to the middle cylinder.

Abstract: An imaging apparatus includes an imaging unit configured to execute processing to capture an image; a GPS (Global Positioning System) device configured to execute position calculation processing based on data received from a satellite; a power-supply control unit configured to control power supply to the GPS device; an apparatus control unit configured to monitor a state of photographing by a user to calculate a frequency of use of the imaging unit per unit time, and to cause the power-supply control unit to intermittently supply power to the GPS device when the calculated use frequency is lower than a predetermined threshold; and a data-recording control unit configured to generate photographed data attribute information in which positional information acquired in the GPS device is set as attribute information of an acquired image in the imaging unit, and to execute processing to store the photographed data attribute information in a storing unit.

Abstract: A voltage amplifier is provided. The voltage amplifier includes an amplifier stage to amplify an input signal. A bias current generator supplies a bias current to the amplifier stage. The bias current generator is controllable in response to a frame rate signal that is representative of a video frame rate. A compensation network stabilizes a loop response of the voltage amplifier. The compensation network is controllable in response to the frame rate signal.