Abstract: There is provided a driving apparatus which includes an acquisition section which acquires a parameter for driving an imaging element, which receives an optical image from a subject and outputs an imaging image as an electric signal, in an action mode which is desired by a user; a timing generation section which generates respective timings of the starting of each of a plurality of horizontal synchronization periods, where horizontal synchronization periods which are only different in terms of the number of clocks determined in advance are acquired in a mixed state, based on the parameter; and a driving control section which receives the optical image from the subject for each line which configures the imaging element by synchronizing the respective timings which are generated using the timing generation section.

Abstract: The user interaction system comprises a portable pointing device (101) connected to a camera (102) and sending pictures to a digital signal processor (120), capable of recognizing an object (130) and a command given by the user (100) by moving the pointing device (101) in a specific way, and controlling an electrical apparatus (110) on the basis of this recognition.

Abstract: A mechanism for reconstructing sub-images based on measurement data acquired by an imaging system including an array of light modulating elements and an array of photodetectors. Each sub-image is reconstructed based on samples from a respective photodetector and a respective set of measurement patterns defined on a respective virtual sub-region on the modulating array. Each virtual sub-region is configured to include at least the light modulating elements that are able to send a non-trivial amount of light to the respective photodetector during a pattern application period. The virtual sub-regions overlap because many light modulating elements are capable of sending light to more than one photodetector. Whenever a measurement pattern of one virtual sub-region overlaps the measurement pattern of a neighboring virtual sub-region, the two measurement patterns agree by design. Thus, the measurement patterns for the collection of virtual sub-regions combine to form a pattern on the whole modulating array.

Abstract: A solid-state imaging device and a camera system are disclosed. The solid-state imaging device includes a pixel unit and a pixel signal readout circuit. The pixel signal readout circuit includes a plurality of comparators disposed to correspond to a pixel column array, and a plurality of counters. Each counter includes a first amplifier, a second amplifier, and a mirror circuit to from a current mirror in parallel with the second amplifier. The first amplifier includes differential transistors, initializing switches connected between gates and collectors of the differential transistors, and first and second capacitors connected to each of the gates of the differential transistors. The second amplifier includes an initializing switch and a third capacitor. The mirror circuit includes a gate input transistor whose gate is inputted with a voltage sampled by the first amplifier or a voltage sampled by the second amplifier.

Abstract: A camera system that transfers static image data while reducing power consumption is provided. A static image application issues a frame transfer command at a certain transfer period to a camera module. In each transfer period, the camera module wakes up from a suspend state and generates static image data. After the end of the transfer, the camera module transitions to the suspend state. The camera module is able to transition to the suspend state at each transfer period and thus is able to reduce power consumption.

Abstract: An imaging device includes a communication part that transmits an image data to an external display device, an outer barrel, an imaging element, and first and second coupling parts that are configured to be coupled to an installation device which is attachable to and detachable from the display device. The first and second coupling parts are disposed at a rear surface part of the outer barrel, and a storage part that stores a battery is provided between the first coupling part and the second coupling part in the rear surface part of the outer barrel.

Abstract: A diaphragm control apparatus of an interchangeable lens camera includes a photographing lens, a diaphragm control slider which is driven between first and second control ends corresponding to maximum and minimum apertures, a position detector, and a controller which drives the diaphragm control slider toward the first control end at high-speed, stores in a memory, as a temporary origin, a position to which the diaphragm control slider has rebounded after reaching the first control end. Thereafter, the controller compares the current position of the diaphragm control slider with the temporary origin while driving the diaphragm control slider at a low-speed towards the first control end. When the current position is within a predetermined range of the temporary origin, the controller determines the current position as the origin of the diaphragm control slider.

Abstract: Disclosed herein is a solid-state imaging device including, a first semiconductor region of the first conduction type, a photoelectric conversion part having a second semiconductor region of the second conduction type formed in the region separated by the isolation dielectric region of the first semiconductor region, pixel transistors formed in the first semiconductor region, a floating diffusion region of the second conduction type which is formed in the region separated by the isolation dielectric region of the first semiconductor region, and an electrode formed on the first semiconductor region existing between the floating diffusion region and the isolation dielectric region and is given a prescribed bias voltage.

Abstract: The present invention generates first developed image data by correcting image data with use of a first white balance correction value corresponding to a first light source, generates second developed image data by correcting the image data with use of a second white balance correction value corresponding to a second light source, calculates a color evaluation value of each of blocks by adding and averaging color evaluation values of pixels in the image data for each of the divided blocks, calculates a combining ratio based on a difference between the calculated color evaluation value of each of the blocks and a color evaluation value of white under the second light source, and combines the first developed image data and the second developed image data according to the calculated combining ratio.

Abstract: The invention describes a solid-state CMOS image sensor array and discloses image sensor array pixels with global and rolling shutter capabilities that utilize multiple BCMD transistors for a single photodiode, for charge storage and sensing. Thus, the valuable pixel area saved by employing the BCMD transistor for charge storage and sensing is used by placing several BCMD transistors coupled to one photodiode. This increases the Dynamic Range (DR) of the sensor, since the same photodiode can integrate charge for different integration times, both long and short. This allows sensing of two different image signals from a single pixel without saturation, a low level signal with long integration time followed by a high level signal with short integration time. The signal processing circuits located at the periphery of the array can then process these signals into a single Wide Dynamic Range (WDR) output.

Abstract: A method of and system for compression of images and video, with random access capability are described herein. Before encoding, the image is partitioned into blocks. The pixels in each block are grouped into several groups using thresholds such that a single value is stored in each group.

Abstract: A time-of-flight sensor device includes analog memory to store one or more sets of charges associated with a time-of-flight image frame captured by a time-of-flight pixel array. So configured, the time-of-flight sensor device greatly reduces or eliminates the need for digital memory otherwise required to store image data prior to processing.

Abstract: An imaging apparatus includes a hot shoe to which one of a plurality of peripheral devices including an external strobe is selectively attachable. The imaging apparatus further includes a USB controller, a flash controller configured to output a flash control signal for controlling the external strobe, and a video signal controller configured to output a video signal. An apparatus-side connector to be electrically connected to a peripheral-side connector provided in a corresponding one of the peripheral devices upon attachment of the corresponding one of the peripheral devices to the hot shoe is provided in an inner region of the hot shoe or an adjacent region outside the hot shoe. The apparatus-side connector includes a USB terminal, a flash terminal, and a video terminal.

Abstract: There is provided a first and second method for processing a composite video image. The methods generally include obtaining a first image of a scene through a first image capturing device with the composite image including a visual representation for directing a receiver's attention to at least one portion of the first image. Preferably, the visual representation may be an arm, a hand, a finger, or an object used for pointing.

Abstract: An imaging apparatus includes a zoom lens, an operation unit that receives an operation for changing a magnification of the zoom lens, an imaging unit that generates image data based on a subject image formed via the zoom lens, a driver that moves the zoom lens stepwise to one of predetermined stop positions corresponding to each of a plurality steps according to the operation received by the operation unit, and a controller that controls the driver. The controller changes the stop position of the zoom lens at each step according to a size of a region of the imaging unit on which the image data is generated so that a converted focal length at the stop position of the zoom lens at each step is the same regardless of the size of the region.

Abstract: An example image sensor includes a plurality of pixels arranged in an array of columns and rows, a row driver, and a control logic circuit. The row driver is coupled to pixels in a row of the array to provide a variable driving voltage to drive transistors included in the pixels of the row. The control logic circuit is coupled to provide one or more control logic signals to the row driver. The row driver adjusts a magnitude of the driving voltage in response to the one or more control logic signals.

Abstract: An image processing apparatus for retrieving and displaying image data related to an object included in image data, and a method of controlling the apparatus, whereby the image processing apparatus obtains image data, extracts feature data of an object in the image data, retrieves, from image data stored in a storage medium, image data having feature data similar to the extracted feature data, selects image data to be displayed from a plurality of items of retrieved image data, based on additional data of each of the plurality of retrieved image data, and displays the selected image data together with the obtained image data.

Abstract: A method of making a high resolution camera includes assembling, imaging and processing. The assembling includes assembling on a carrier a plurality of sensors. Each sensor is for imaging a portion of an object. The plurality of sensors are disposed so that the portions imaged by adjacent sensors overlap in a seam leaving no gaps between portions. The imaging images a predetermined known pattern to produce from the plurality of sensors a corresponding plurality of image data sets. The processing processes the plurality of image data sets to determine offset and rotation parameters for each sensor by exploiting overlapping seams.

Abstract: A camera a has an image sensor; an exposure controller that conducts a main exposure and a dark exposure, in order, when a long-exposure shooting is carried out; an image signal processor that processes image-pixel signals that are generated by the main exposure and are read from the image sensor; and a noise reduction processor that reduces dark current components in the image-pixel signals on the basis of dark current components in the dark exposure. The exposure controller operates the image sensor for heating between the main exposure and the dark exposure.

Abstract: There is provided an image processing device including a calculation section configured to calculate a feedback adjustment amount based on a change in temporal direction of a reference image which is spatially correlated with an input image, a motion compensation section configured to perform motion compensation on an output image, which is obtained from the input image of a preceding frame immediately preceding a current frame expected to be processed, based on spatial information of the reference image, and a blending section configured to generate the output image of the current frame by blending an interpolated output image obtained by the motion compensation and the input image of the current frame based on the feedback adjustment amount.