Abstract: A photoelectric conversion device includes a pixel area, the pixel area including a plurality of pixels arranged in a matrix, each pixel comprising a photoelectric conversion portion, a floating diffusion, and a transfer gate, the transfer gate controlling transfer of charges generated in the photoelectric conversion portion to the floating diffusion. The photoelectric conversion portion is shifted relatively to the transfer gate depending on a position thereof in the pixel area. The shifting direction is a direction perpendicular to a charge transfer direction from the photoelectric conversion portion to the floating diffusion.

Abstract: A time of flight sensor has a photosensitive image region (1) comprising a linear array of M pixels; a storage region (2) comprising M columns of N storage elements, and transfer circuitry to transfer data along the M columns of storage from an input storage element connected to a respective one of the M pixels along column of N storage elements to an output storage element at a transfer frequency Ft, each row of M storage elements storing data captured at the same time; and a readout section (3) arranged to read out data from the output end of the M columns of the storage region at a readout frequency Fr. In this way the readout frequency and transfer frequency may be separately controlled. An amplifier (4) may be connected to the readout section. An optical shield (5) may shield the storage elements leaving the photosensitive image region unshielded. The elements may be elements of a charge coupled array.

Abstract: A CCD image sensor, being a solid state imaging device, has four types of pixels, first to fourth pixels. The first to fourth pixels are arranged in a predetermined pattern. Each of the pixels has a PD and a microlens. Each of the microlens is arranged with its optical axis center eccentric or shifted in a predetermined direction from a center of a light receiving surface of the PD. A part of the microlens overlaps one or more adjacent pixels.

Abstract: The invention provides an imager readout architecture utilizing analog-to-digital converters (ADC), the architecture comprising a band-limited sigma delta modulator (SDM) ADC; and a serpentine readout, which can be configured to allow the band-limited SDM to multiplex between multiple columns by avoiding discontinuities at the edges of a row. SDM ADC image reconstruction artifacts are minimized using a modified serpentine read out methodology, the methodology comprising using primary and redundant slices with the serpentine read out in opposite directions and averaging the slices. Advantageously, the invention can be used to develop a read out integrated circuit (ROIC) for strained layer superlattice imagers (SLS) using sigma delta modulator (SDM) based analog to digital converters (SDM ADC).

Abstract: A sense amplifier having a negative capacitance circuit receives differential input signals via a pair of data lines, and senses and amplifies a voltage difference between differential output signals corresponding to the differential input signals as loaded by the negative capacitance circuit using a differential-to-single-ended amplifier to generate a corresponding data output signal.

Abstract: Image processing apparatus comprises a demosaic processor for receiving a video signal comprising pixel data from an array of photosensors each having a respective color filter so as to restrict the sensitivity of that photosensor to a primary color range selected from a set of three or more primary color ranges, the array being such that the photosensors in alternate rows are sensitive to a first primary color range, and photosensors in intervening rows are sensitive to the other primary color ranges. The pixel data including pixel data from a first subset of the rows sensitive to the first primary color range, the first subset being the same from image to image of the video signal; and pixel data from a second subset of the rows of photosensors sensitive to the other primary color ranges, the second subset changing from image to image of the video signal.

Abstract: In various embodiments, image-capture methods include a mode in which an image is acquired via charge accumulation in multiple regions of an imaging array and read out to one or more outputs, and/or a mode in which an image is acquired via charge accumulation in a first region of an imaging array, held in vertical CCDs of another region of the imaging array, and read out along with a second image acquired via charge accumulation in the first region of the imaging array.

Abstract: The present invention reduces differences in the influence of electric charge leakage from a non-read out region into multiple read out regions adjacent to a non-read out region. Reset scanning of that row in the non-read out region which adjoins the first or second read out region is started before read out scanning of the first and second read out regions.

Abstract: A solid-state image pickup device includes a plurality of pixels and a scanning unit. Each pixel includes a photoelectric conversion element and a charge accumulation region. The scanning unit is configured to read a first signal from a charge accumulation region. The scanning unit is configured to read a second signal from the charge accumulation region. The first signal corresponds to an accumulation of signal charges during a first period, while the second signal corresponds to another accumulation of signal charges during a second period.

Abstract: At least one exemplary embodiment is directed to an imaging apparatus including an image sensor including a light-shielded pixel area, a comparison unit configured to compare a light-shielded pixel output value output from at least a part of the light-shielded pixel area with a plurality of preset determination values, a counting unit configured to count a result of comparison performed by the comparison unit with respect to each of the plurality of determination values, and a calculation unit configured to estimate an amount of dark current generated in the image sensor based on a result of counting performed by the counting unit.

Abstract: An image-data processing apparatus includes a writer which writes image data into a memory according to a non-interlaced-scanning or an interlaced-scanning of each N line. An updater updates a cumulative zoom coefficient by accumulating, for each line, a decimal portion of the cumulative zoom coefficient to a first numerical value corresponding to the zoom coefficient. An accumulator accumulates, for each line, a second numerical value corresponding to an integer portion of the cumulative zoom coefficient. A reader reads out image data in a line corresponding to an accumulated value of the accumulator. A first setter sets N-times the zoom coefficient to the first numerical value in the non-interlaced-scanning, and sets the zoom coefficient to the first numerical value in the interlaced-scanning. A second setter sets an integer portion to the second numerical value in the non-interlaced-scanning, and sets N-times the integer portion to the second numerical value in the interlaced-scanning.

Abstract: A solid-state imaging device has: an imaging region in which a plurality of pixels each having a photoelectric conversion element are arranged, and a color filter. The color filter includes: filter components of a first color (2G), filter components of a second color (2R) formed by self-alignment and each being surrounded by the filter components of the first color (2G), and filter components of a third color (2B) formed by self-alignment and each being surrounded by the filter components of the first color (2G).

Abstract: An imaging sensor having reduced column fixed pattern noise includes a plurality of imaging pixels and a column sampling circuit. The plurality of imaging pixels are arranged in a column the column sampling circuit is coupled to the column. A plurality of sampling channels are included in the column sampling circuit, where the column sampling circuit randomly selects a first sampling channel from among the plurality of sampling channels to sample a first data signal from a pixel included in the plurality of imaging pixels and where the column sampling circuit randomly selects a second sampling channel from among the plurality of sampling channels to sample a second data signal from the pixel.

Abstract: Multiple images are captured where the exposure times for some of the images overlap and the images are spatially overlapped. Charge packets are transferred from one or more portions of pixels after particular integration periods, thereby enabling the portion or portions of pixels to begin another integration period while one or more other portions of pixels continue to integrate charge. Charge packets may be binned during readout of the images from the image sensor. Comparison of two or more images having different lengths of overlapping or non-overlapping exposure periods provides motion information. The multiple images can then be aligned to compensate for motion between the images and assembled into a combined image with an improved signal to noise ratio and reduced motion blur.

Abstract: Disclosed is a photographing apparatus of interlace transferring type comprising a photographing device which carries out transfer of electrification of all pixels stored in the photographing device by dividing into a plurality of fields when transferring the electrification, which has a plurality of color filters and which includes a color signal of at least RGB or YeCyMgG in the transfer data of each field for transferring the electrification, an extraction unit for extracting characteristic data of an image from transferred data before processing for the image is started, a generating unit for generating control value carrying out correction of image based on the extracted characteristic data, and a photographing processing unit for processing the image by use of a control value formed by said characteristic data.

Abstract: An image sensor driving unit, comprising a signal generator and a controller, is provided. The charge-transfer channel transfers the signal charges at a speed according to the frequency of a transfer signal. The signal generator transmits the first discharge signal and the second discharge signal to the image sensor. The first and second discharge signals are the transfer signals for the charge-transfer channel to carry out rapid discharge. The frequency of the second discharge signal is greater than that of the first discharge signal. The controller orders the signal generator to generate the first discharge signal during an overlap period when a driving period is at least partially overlapped with a discharge period. The controller orders the signal generator to generate the second discharge signal when the driving period is not overlapping with the discharge period.

Abstract: A signal reading method successively outputs a read signal by scanning a voltage value of an integrating capacitor in an image sensor in which a plurality of sensor parts are arranged in a two-dimensional array made up of rows and columns and each sensor part includes the integrating capacitor accumulating a charge obtained by integrating a photocurrent output from a sensor. A first integration of the photocurrent using the integrating capacitor and a first sampling and holding using a sample and hold capacitor are performed in a first time interval, during a time of one frame made up of the first through third time intervals. A second integration of the photocurrent using the integrating capacitor is performed in the second time interval, and processes in the first and second time intervals are performed in common with respect to all of the sensor parts simultaneously. A vertical scan is started by selecting the row in an order starting from a first row.

Abstract: An image sensor driving unit, comprising a first controller, a second controller and a third controller, is provided. The image sensor driving unit drives an image sensor to carry out the capture of an image. The capture is carried out by ordering pixels to generate signal charges and the charge-transfer channel to transfer the signal charges. The first controller orders the image sensor to carry out a rapid discharge operation before the charge-transfer channel transfers the signal charges. The second controller controls the first controller to order the image sensor to carry out the rapid discharge operation when light is made incident for capture after the first capture with the image sensor operating in continuous photographing mode. The third controller decreases the discharge number for capture after the first capture.

Abstract: The invention provides a photoelectric conversion device, in which a decrease in sensitivity and a crosstalk between wirings are suppressed. Plural pixel columns are arranged in one direction, plural pixels are arranged in a different direction to the one direction in a column manner in the pixel column, and the pixel includes a photodiode PD, a reset transistor M4 for resetting the photodiode PD, and a source follower input transistor M3 for receiving a signal from the photodiode PD. An independent readout wiring 16 is individually provided for each pixel. The reset transistor M4 and the source follower input transistor M3 included in one pixel column or another pixel column are arranged between the photodiode column in one pixel column and the photodiode column in another pixel column arranged adjacent to the one pixel column.

Abstract: A digital imaging device provides for different exposure times for each of a set of color components, the exposure time of each color component being inversely related to its strength relative to the other color components in a pre-exposure frame. By compensating for color imbalance in the scene during exposure, the digital imaging device improves the signal-to-noise ratio and, hence, the quality of the resulting digital image.

Abstract: When a signal is read from a CCD solid-state image pickup element, the CCD solid-state image pickup element is driven with at least two driving voltages so that high-speed reading is performed with generation of noise due to interference between the driving voltages reduced. The CCD solid-state image includes a charge storage section between a vertical transfer register and a horizontal transfer register. By performing the transfer of charge in the direction of columns during an effective transfer period of the transfer in the direction of rows, signal charge of one row generated by a light receiving sensor is transferred to the charge storage section, and by performing the transfer outside the effective transfer period in the transfer in the direction of the row, the signal charge of one row transferred to the charge storage section is transferred to the horizontal transfer register.

Abstract: A method of driving a solid-state image sensing device comprises plural photoelectric conversion devices arranged in rows and columns perpendicular to the rows, VCCDs through which charges generated by the photoelectric conversion devices are transferred in the column direction, and an HCCD through which the charges transferred from the VCCDs are transferred in the row direction. The photoelectric conversion devices include plural photoelectric conversion device rows including the photoelectric conversion devices arranged in the rows include first photoelectric conversion device rows each of which different kinds of photoelectric conversion devices are mixed and second photoelectric conversion device rows each of which has one kind of photoelectric conversion devices.

Abstract: An image sensor and a method for using the same are disclosed. The image sensor includes an array of pixel sensors, a signal digitizing circuit, and a digitizing controller. The array of pixel sensors includes a plurality of pixel sensors. Each pixel sensor includes a photodetector, a charge conversion circuit, and a gate transistor. The charge conversion circuit generates a voltage signal that is related to a charge on the photodiode, and the gate transistor couples the voltage signal to a bit line in response to a first signal. The signal digitizing circuit converts the voltage signal to a plurality of output digital values. Each output digital value has a different level of digitization noise. One of the output digital values is selected for output in response to an output selection signal that is generated by the digitizing controller.

Abstract: Preview mode low-resolution readouts occur, and then a shutter button on a camera is pressed, which causes an image sensor cleanout operation to occur. Following the cleanout, a high-resolution readout occurs. As rows of sensor values are read, the first rows are rows corresponding to a pre-defined horizontally-extending shielded area. There are no valid area sensor elements to either side of the horizontally-extending area. Data values read from the horizontally-extending area are used to determine optical black (OB) values that are then used to adjust the valid area values read out of the image sensor in that same frame. The same OB values are used throughout the adjusting of the valid area values of the entire frame. No values from the preview readouts are used in the OB value determination, so there is a clean break between the preview mode OB level and the high-resolution capture OB level.

Abstract: A method for capturing multiple sets of image data with an electronic camera having a shutter and an electronic shutter for selectively allowing light to reach an image sensor comprises opening the shutter and the electronic shutter, allowing light to reach the image sensor for a first exposure time, closing the electronic shutter, reading out pixel data captured during the first exposure time, allowing light to reach the image sensor for a second exposure time, and, reading out pixel data captured during the second exposure time. The method may be used to obtain multiple differently exposed images of a scene for combination into a high dynamic range image.

Abstract: The present invention relates to an image processing apparatus and method enabling to correct for camera shake given in image capturing, a recording medium, and a program. Discrete data pieces indicating shifts are obtained. The discrete data pieces are interpolated to obtain data indicating a shift every line. By the interpolation, a correction is calculated every line on the basis of the corresponding shift. On the basis of the corrections, pixel data read positions are determined. Pixel data is read based on the determined read positions. When a pixel to be read overlaps two pixels, pixel data of the pixel to be read is produced (interpolated) from pixel data pieces. In this manner, the effects of camera shake are corrected. The present invention is applicable to video cameras.

Abstract: When a signal is read from a CCD solid-state image pickup element, the CCD solid-state image pickup element is driven with at least two driving voltages so that high-speed reading is performed with generation of noise due to interference between the driving voltages reduced. The CCD solid-state image includes a charge storage section between a vertical transfer register and a horizontal transfer register. By performing the transfer of charge in the direction of columns during an effective transfer period of the transfer in the direction of rows, signal charge of one row generated by a light receiving sensor is transferred to the charge storage section, and by performing the transfer outside the effective transfer period in the transfer in the direction of the row, the signal charge of one row transferred to the charge storage section is transferred to the horizontal transfer register.

Abstract: An image sensor includes a reset transistor, reset gate electrodes and a potential shift circuit. The reset transistor includes a reset gate and a reset drain, and resets charges detected by a charge detection device. The reset gate electrodes control a potential of the reset gate. The potential shift circuit initializes output signals in response to a shift pulse, and outputs the output signals to the reset gate electrodes in response to a reset pulse.

Abstract: A solid-state imaging device, and a camera provided with this device, that can output high quality images at high speed are realized by preventing improper OB clamping in a solid-state imaging device that performs pixel mixing in the horizontal direction. Vertical final stages, which are the transfer stages closest to a horizontal transfer component 4, are provided with provided with independent transfer electrodes V3-1, V3-2, V3-3, V6-1, V5-2, and V5-3 that are independent of other columns in a region between the horizontal transfer component and an effective pixel region, and a common transfer electrode that is common to all of the columns in the region between the horizontal transfer component 4 and the OB region. Further, in the vertical final stages, the entire region between the OB region and the horizontal transfer component, or the region minus openings formed for the wiring of V3-1 and V5-1 in the columns closest to the effective pixel region, is covered with a light blocking film.

Abstract: The present invention is directed to an image pick-up apparatus adapted for picking up image of object, which comprises a solid-state image pick-up device (1) for performing photo-electric conversion in accordance with a received image pick-up light, a switching unit (10) for performing switching between first mode serving as image pick-up mode where charges stored in the solid-state image pick-up device (1) are read out every n (n is natural number) frames and second mode serving as image pick-up mode where charges stored in the solid-state image pick-up device (1) are read out every m (m is natural number) fields to add odd charges and even charges which are adjacent in a vertical direction of the charges which have been read out while changing the combination thereof every m fields to provide an output, and a control unit (9) for controlling the switching unit (10) in such a manner to switch the image pick-up mode into the first mode in accordance with image pick-up request at low output sensitivity, and t

Abstract: A CCD image sensor is driven in an interlace scan method, in which readout of signal charge is performed in two divided fields. In the first field, signal charge Qs accumulated in photodiodes of the first horizontal line and noise charge Qn generated in VCCDs on the second horizontal line are transferred. In the second field, the signal charge Qs accumulated in the photodiodes of the second horizontal line and the noise charge Qn generated in the VCCDs on the first horizontal line are transferred. The image signal based on the noise charge Qn obtained in the second field is subtracted from the image signal Qs based on the signal charge obtained in the first field. Then the image signal based on the noise charge Qn obtained in the first field is subtracted from the image signal based on the signal charge Qs obtained in the second field.

Abstract: A method for capturing multiple sets of image data with an electronic camera having a shutter and an electronic shutter for selectively allowing light to reach an image sensor comprises opening the shutter and the electronic shutter, allowing light to reach the image sensor for a first exposure time, closing the electronic shutter, reading out pixel data captured during the first exposure time, allowing light to reach the image sensor for a second exposure time, and, reading out pixel data captured during the second exposure time. The method may be used to obtain multiple differently exposed images of a scene for combination into a high dynamic range image.

Abstract: A driving controlling method and system for an interline transfer type solid-state image sensing device. The device is driven by setting an arbitrary horizontal extraction period is set in a horizontal sync period, and making a selection between a first horizontal transfer signal and second horizontal transfer signal which is to be transferred at a higher rate than the first horizontal transfer signal.

Abstract: The invention provides a photoelectric conversion device, in which a decrease in sensitivity and a crosstalk between wirings are suppressed. Plural pixel columns are arranged in one direction, plural pixels are arranged in a different direction to the one direction in a column manner in the pixel column, and the pixel includes a photodiode PD, a reset transistor M4 for resetting the photodiode PD, and a source follower input transistor M3 for receiving a signal from the photodiode PD. An independent readout wiring 16 is individually provided for each pixel. The reset transistor M4 and the source follower input transistor M3 included in one pixel column or another pixel column are arranged between the photodiode column in one pixel column and the photodiode column in another pixel column arranged adjacent to the one pixel column.

Abstract: There is provided a signal generator which includes a main memory which stores at least time data indicating timing when a state change of a timing pulse occurs and space data indicating a state of the timing pulse corresponding to the time data; a counter which counts a clock to be a reference; a first memory which stores predetermined time data in time data stored in the main memory; a comparator which compares an output of the counter with the predetermined time data stored in the first memory and to output a result; a second memory which stores predetermined space data in space data stored in the main memory; and output signal control means which controls the timing pulse to a state of the timing pulse indicated by the space data stored in the second memory on the basis of an output of the comparator.

Abstract: An imaging processing apparatus for effecting imaging processing on imaging signals inputted from an imaging device having a plurality of pixels arranged on a plane and having color filters attached on an imaging surface, the imaging processing apparatus having: a region determining unit, a first retaining unit, a second retaining unit, a switching unit, and an accumulation unit.

Abstract: A method for capturing a sequence of images, the method includes the steps of capturing a first image on an image sensor having a plurality of photosensitive areas having a first portion of photosensitive areas and a second portion of photosensitive areas; transferring the first portion of the first captured image to a first plurality of storage mechanisms; capturing a second image on the image sensor; transferring the second portion of the second captured image to a second plurality of the storage mechanisms; capturing a third image on the image sensor; reading out the first portion of the first captured image from the first plurality of storage mechanisms and reading out the second portion of the second captured image from the second plurality of storage mechanisms; and reading out the third image.

Abstract: A photographing device and method of dividing data of electric charges stored in all pixels corresponding to an image focused on an photographing device having a color filter for resolving color into M(?3) fields, transferring the divided data in sequence until data of m(<M) fields of the M fields are transferred, the transferred data of the m fields including all types of color signals and pixels necessary to prepare a color image and preparing a color image using the transferred data.

Abstract: A CCD-based solid state image sensing (imaging) device and a driving method, enabling three-color still or video image signal charge processing without requiring a frame memory buffer. By using horizontal electrodes to selectively assert predetermined vertical-driving signals of the vertical CCDs, the vertical CCDs receive and vertically transmit the image signals (charges) of active pairs of vertically adjacent rows. Each active pair of adjacent rows is separated by (at least) two (a pair of) inactive adjacent rows, and the image signal (charges) of the active pair of adjacent rows represent all three colors (R, G, B) of one line (or one field) of real-image pixels. A horizontal CCD receives the selected image signals (charges) for each active row among the active pairs of rows, and outputs the image signals (charges) for each active row by conventional horizontal transmission to an interpolator adapted to continuously output three-color pixel signals (e.g., digital signals), e.g.

Abstract: An automatic exposure (AE) sensor includes a line-selecting circuit for line selection between horizontal lines and vertical lines, in addition to components of a typical AE sensor. The line-selecting circuit temporally filters a SYNC pulse for notifying a subsequent circuit about a pulse timing of an imaging signal to select a line to be read out and to cause the subsequent circuit to change an active pixel region. The number of selected lines is determined by an external input. The active pixel region is reduced when the AE sensor is incorporated in a device having a low performance CPU, thereby reducing load on the CPU. The active pixel region is increased when the AE sensor is incorporated in a device having a high performance CPU, thereby effectively using the CPU performance to achieve higher density control.

Abstract: In an image sensing apparatus which uses a solid-state image sensing device, it is an object of the present invention to minimize smear. In order to achieve the object, a solid-state image sensing apparatus includes a solid-state image sensing device, a calculation unit which calculates a signal correction amount from an output signal from the solid-state image sensing device, an indication unit (even_odd_flag) which indicates whether the above output signal is output from an even-numbered line or odd-numbered line of the solid-state image sensing deice, the first correction unit which corrects the signal correction amount in accordance with the output from this indication unit, and the first subtraction unit which subtracts, from the above output signal, the signal correction amount corrected by the first correction unit.

Abstract: A plurality of low-sensitivity pixels 10 and a plurality of high-sensitivity pixels 20 are arranged like a tetragonal grid respectively, and are provided in positions shifted by ½ of an array pitch from each other in a row direction X and a column direction Y. The detected charges of the low-sensitivity pixel 10 and the high-sensitivity pixel 20 are transferred in the column direction Y by a vertical transfer section 31. The charges of the low-sensitivity pixel 10 and the high-sensitivity pixel 20 which are adjacent to each other in the column direction are transferred through the vertical transfer sections 31 which are different from each other.

Abstract: A CCD has transferring gates to which gate pulses for transferring only pixel information of pairs of two adjoining lines with intervals of a plurality of lines to vertical transferring routes are applied when the image signals with the low definition are produced. Thus, a frame rate can be maintained high and reduced image signals without untrue colors can be obtained.

Abstract: The present disclosure relates to an address sub-sampling apparatus and method, and an image sensor employing the same. An address sub-sampling apparatus includes a counting unit that generates a binary address of N bits, N being a natural number larger than 2. The address sub-sampling apparatus also includes an address conversion unit that sub-samples the binary address of N bits to output a sub-sampled address having first, second and third bit groups, wherein the sub-sampled address is arranged in order of the third, the first and the second bit groups from the MSB (Most Significant Bit).

Abstract: A Charge Coupled Device (CCD) camera and a method for controlling the same. When a photographing command is input from the input unit by operation of user, the controller controls the iris drive unit so as to open and close the iris periodically for a preset time. Also, the control reads electric signals accumulated in the CCD imaging unit according to fields by light incident according to the opening of the iris, and then stores the read CCD data in the memory according to fields. Then, each CCD datum read from the CCD imaging unit is stored in the memory in the raw datum state without addition of an adjacent datum. Next, the controller generates a second odd field and a second even field by adding offset values, according to fields, to each CCD signal of the raw data state stored in the memory, and then forms a still image by combining the second odd field and the second even field.

Abstract: In a solid-state image pickup apparatus, a solid-state image sensor includes a color filter having filter segments arranged in a pattern, photosensitive cells for photoelectrically transducing light transmitted through the filter segments to generate corresponding signal charges, vertical transfer devices for vertically transferring the signal charges, a horizontal transfer device for transferring the signal charges input from the vertical transfer devices in the horizontal direction, and a charge holding circuit intervening between the vertical and horizontal transfer devices for temporarily storing the signal charges. A signal charge thinning circuit omits signal charges whose color pattern, which is generated by mixing signal charges having the same color attribute in the direction of row in the filter pattern to thereby horizontally thin the signal charges, is different in positional relation from the filter pattern.

Abstract: A CPU 14 drives the CCD2 by switching its driving mode between an omission readout mode and a summation readout mode. Summing the signal charge of pixels in the summation readout mode offers an increased sensitivity. The omission readout mode reduces smear. The summation readout mode calls for reading out to the vertical transfer paths all red pixel signal charges of the two-color filters aligned along each vertical transfer path. While charge readout voltages are applied to a specific system of charge readout electrode systems, vertical transfer is performed to sum pixels of a like color on each vertical transfer path. Charges of the green pixels are read to the vertical transfer paths so as not to be mixed with the red signal charges. By combining vertical transfer with selective readout, pixels of the respective same colors are summed on the vertical transfer paths or the horizontal transfer path.

Abstract: A compact, energy efficient image sensor which enables transfer of images to an external system is made compact in size and low in power consumption comprises an image sensor control circuit 20 which operates to drive a CCD image sensor 4 and stores horizontal lines of image data in a line memory 30. An HREF signal is raised in association with the storing operation. The external system monitors the HREF and supplies an external clock EXCLK to an image sensor 2 during an H level period according to its convenience. A memory control circuit 34 sequentially outputs image data from the line memory 30 to a data bus 10 in pixel units and in synchronization with the EXCLK.

Abstract: A Charge Coupled Device (CCD) camera and a method for controlling the same. When a photographing command is input from the input unit by operation of user, the controller controls the iris drive unit so as to open and close the iris periodically for a preset time. Also, the control reads electric signals accumulated in the CCD imaging unit according to fields by light incident according to the opening of the iris, and then stores the read CCD data in the memory according to fields. Then, each CCD datum read from the CCD imaging unit is stored in the memory in the raw datum state without addition of an adjacent datum. Next, the controller generates a second odd field and a second even field by adding offset values, according to fields, to each CCD signal of the raw data state stored in the memory, and then forms a still image by combining the second odd field and the second even field.

Abstract: A solid-state image pickup apparatus includes a color filter having an R (red), G (green) and B (blue) vertical stripe pattern. During preliminary pickup, a signal feeding section feeds particular drive signals for reading signal charges out of only odd-numbered columns or even-numbered columns. As a result, the signal charges or image data reduced to, e.g., one-half in the horizontal direction are transferred along a horizontal transfer path. The signal feeding section feeds horizontal drive signals adjusted in timing to the horizontal transfer path, causing the above image data to be read out without varying reading frequency. This doubles the horizontal transfer rate to thereby improve the signal output rate during preliminary pickup despite high pixel density, and allows signals to be read out without effecting actual pickup to follow.