Abstract: An electronic still camera is provided with timing generators in drive signal generating circuitry which are selected to generate various timing signals in accordance with a mode set by mode selection. Two vertical drivers generate substrate potentials defining the signal charge capacity of photo-sensitive cells. In accordance with the mode set, a system controller feeds a mode adaptive selector with a control signal. In response to the mode signal, the mode adaptive selector selects an output from one of the vertical drivers. From the one vertical driver, the photosensitive cells are fed with a predetermined voltage higher than usual as the substrate potential. An image signal obtained is amplified by a signal processing circuit provided in the following stage.

Abstract: An image signal processing apparatus includes: a solid-state image pickup device capable of taking a two-dimensional image, the device having a plurality of primary transfer paths and a secondary transfer path, wherein the plurality of primary first transfer each have a plurality of transfer stages each capable of storing electric charges and transfer the electric charges in a first direction, and the secondary transfer path has a plurality of transfer stages each capable of storing electric charges, receives electric charges in the plurality of primary transfer paths, and transfers the electric charges in a second direction; a reading unit for scanning the two-dimensional image on the solid-state image pickup device in a main scan direction corresponding to the second direction and in a sub-scan direction corresponding to the first direction and reading the electric charges in the secondary-transfer path as image signals; and an output unit for outputting the read image signals on a monitor by interchanging

Abstract: A method for driving a CCD solid-state image sensing device. The method is applied to driving the CCD in order to ensure a sufficiently large charge to be handled. In the method, the driving control is performed such that the length of a control interval, which starts from the point in time when a driving voltage is applied to an electrode terminal having the largest time constant (for example, the electrode having the longest wiring line as viewed from the input side of a driving clock, or the electrode laminated at the lowest layer) is more than the length of the other control intervals subsequent to the control interval. Thus, the influence of delay in the rise time of the driving voltage at the electrode which has the largest time constant is eliminated.

Abstract: Subsampling of data is performed at a high subsampling rate in an image sensing device such as a CCD. Signal lines for applying transfer pulses to transfer gates in the device are connected so as to apply gate pulses simultaneously to transfer gates for photodiodes of (n+1)th, (n+5)th and (n+13)th rows, apply gate pulses simultaneously to transfer gates for photodiodes of an (n+2)th row, apply gate pulses simultaneously to transfer gates for photodiodes of (n+3)th, (n+7)th, (n+11)th and (n+15)th rows, apply gate pulses simultaneously to transfer gates for photodiodes of (n+4)th, (n+8)th, (n+12)th and (n+16)th rows, apply gate pulses simultaneously to transfer gates for photodiodes of (n+6)th, (n+10)th and (n+14)th rows, and apply gate pulses simultaneously to transfer gates for photodiodes of an (n+9)th row.

Abstract: An imaging apparatus includes an interline type CCD image sensor having 1,000,000 or more pixels, which has a Bayer configuration color filter suitable for reading all pixel signals in a line-sequential scanning manner. The imaging apparatus drives the CCD image sensor in a high speed mode usually, and in a high quality image mode only for a trigger depression. In the high speed mode, the CCD image sensor outputs pixel signals for one line at intervals of three lines in the vertical direction. During the high speed mode operation of the CCD image sensor, images are displayed on a liquid crystal display portion at a frame rate of 60 frames/second, the images being recognized by the human eyes as a dynamic image, i.e., a motion picture.

Abstract: A charge coupled imaging device includes a matrix of elements for converting an image projected onto the matrix into a frame of charge packets, along with a system of vertical charge transport channels (3) and a horizontal read-out register (C). A structure is provided for dumping unnecessary lines into a removal region in a certain operating mode. These lines are dumped at the transition between the imaging section and the memory section. The imaging device includes an imaging section (A) and a separate memory section (B) as well as a removal region (12) situated below the matrix as an anti-blooming provision. Unnecessary lines may be dumped, for example, into the substrate in that the transport in the imaging section is continued during frame transport while at the same time the transport in the memory section is stopped.

Abstract: An interline transfer type solid imaging device includes a first photosensitive section, a second photosensitive section, and a vertical transfer section. The interline transfer type solid imaging device reads an image signal corresponding to a first field from the first photosensitive section, and reads an image signal corresponding to a second field from the second photosensitive section. First signal charges stored in the first photosensitive section are read into the vertical transfer section. A portion of second signal charges stored in the second photosensitive section are shifted into the first photosensitive section.

Abstract: Image capture data is output from an image capture device, e.g., a CCD, at a commanded frame rate. A succession of fields that occur at a field rate are identified. A commanded frame rate that is less than or equal to the field rate is received. Read signals are applied to the image capture device for selected fields of the succession of fields to thereby output image data at the commanded frame rate. The image capture device is shuttered for a shutter interval based on the commanded frame rate to prevent image capture during the shutter interval. According to aspects of the invention, the commanded frame rate is selected such that the field rate is an integer multiple of the commanded frame rate. An image capture apparatus according to the present invention includes an image capture device configured to receive read signals and operative to output image data responsive thereto. A timing generator is operative to produce a timing signal that define a succession of fields that occur at a field rate.

Abstract: A moving object 2 transferred by a transfer path 1 is detected by a position sensor 3 to generate a trigger pulse signal TRIG-IN of which pulse width can be adjustably set by a pulse width adjustable setting circuit 5 on the basis of a detection output of the position sensor 3 to deliver, to a CCD camera 10, modulated synchronizing signals T.G.-VD, T.G.

Abstract: In a solid-state image capturing device including a pixel array arranged in a row direction and a column direction orthogonal thereto, and a vertical register having a plurality of transfer electrodes which serves to read signal charges Qa, Qb, . . . generated by light receipt of each of pixels A, B, . . . and to sequentially transfer the signal charge in the column direction upon receipt of a transfer pulse, an electric potential well for a smear charge is generated and an unnecessary charge q in the vertical register is collected into the electric potential well for a smear charge before the signal charge is read from the pixels A, B, . . . onto the vertical register (a timing t707), an electric potential well for signal charge transfer is then generated and the signal charges Qa, Qb, . . . are read from the pixels A, B, . . .

Abstract: A solid state image pickup device having: a mode selector for selecting one of first and second modes; a plurality of photoelectric converters for converting received light into electric charges; transfer paths each having a plurality of packets for receiving the electric charges from the plurality of photoelectric converters and transferring the electric charges in each packet; a controller for reading the electric charges from each of the plurality of photoelectric converters and supplying the read electric charges to the transfer paths; and a driver for driving the transfer means in the selected first or second mode at the number of drive phases different from the number of drive phases of the non-selected mode.

Abstract: In a solid-state image capturing device 100 comprising pixel arrays 11r, 11g and 11b arranged in a row direction and a column direction which is orthogonal thereto and a vertical register 12 including a plurality of transfer electrodes in which a signal charge generated by light acceptance of each pixel is read and is sequentially transferred in the column direction upon receipt of a transfer pulse, an electrode terminal for generating K (K is an integer of 2 or more) continuous electric potential wells for a signal charge in the vertical register 12 upon receipt of the transfer pulse and an electrode terminal for generating one electric potential well for a smear charge after the K electric potential wells for a signal charge are provided as electrode terminals 101 to 116 for cyclically transmitting the transfer pulse to each of the transfer electrodes.

Abstract: An image sensing apparatus is provided, in which the charges of four pixels that are adjacent in the horizontal direction and the vertical direction are mixed and output, and combinations of pixel mixings in the horizontal direction are changed at each line, so that signals after four pixels have been mixed are in an offset sampling relation for each line. Furthermore, a color filter of, for example, an RGB primary color stripe arrangement is provided such that three independent color signals can be attained in both a still picture image sensing (all pixel readout) mode and in a moving picture image sensing (four pixel mixing readout) mode.

Abstract: In the production of an IT-CCD including many photoelectric converters in columns and rows, vertical transfer CCDs for transferring signal charge accumulated in the photoelectric converters to a horizontal transfer CCD, and readout gate regions to control, for each photoelectric converter, readout operation of signal charge from the photoelectric converters to the vertical charge transfer CCDs; one joining channel is formed for each set of two vertical transfer CCDs to combine the CCDs with each other and hence a high-pixel-density solid-state image pickup device can be implemented using ordinary fine patterning technique.

Abstract: A charge transfer device whose output end is electrically connected to a charge detector circuit is driven by negative pulse voltage trains to reduce power consumption of the charge detector circuit.

Abstract: There is provided an image pickup apparatus including a plurality of pixels which are arranged in a horizontal and a vertical direction and which generate charges corresponding to optical signals, in which a color filter arrangement of a first order are arranged in horizontal pixel rows of odd numbers and a color filter arrangement of a second order are arranged in horizontal pixel rows of even numbers; and a drive circuit having a first mode for reading out pixel data of 2k+1 fields (k is a natural number) by an interlace operation from the plurality of pixels, a second mode for reading out pixel data of one field among the 2k+1 fields from said plurality of pixels, and a third mode for reading out images of a plurality of fields, the number of which is smaller than the of the 2k+1 fields, among the 2k+1 fields from said plurality of pixels.

Abstract: An image pickup apparatus comprises: an interline-type image-sensing device, which includes: a plurality of photoelectric conversion elements, and a vertical transfer block for transferring charges received from the plurality of photoelectric conversion elements located along one direction. The vertical transfer block includes transfer electrodes disposed such that at least three transfer electrodes are disposed for each of the plurality of photoelectric conversion elements. At least one horizontal transfer block transfers charges received from the vertical transfer block along a direction crossing the one direction, and mode switching means switches a drive mode to drive the image-sensing device either in a still picture mode or in a moving picture mode.

Abstract: A solid-state imaging device comprises, on a semiconductor substrate, a plurality of sensor sections for storing a signal charge commensurate with a quantity of reception light, a charge transfer section for transferring and outputting the signal charge of the sensor sections, and an output section for converting the signal charge transferred by the charge transfer section into an imaging signal for output. A current controller is provided to cut off or reduce a current flowing to the output section in a signal storage period of the sensor section. This cuts off or reduces the current flowing to the output section in a signal storage period of the sensor section, and hence suppresses the amount of the current flowing to the output section in the signal storage period. Thus, wasteful consumption power is greatly reduced.

Abstract: To avoid mixtures of signal charges read out in an all-pixel read out mode and also in a thinning read out mode, a charge sweeping-out pulse is produced from a timing generating circuit of a CCD solid-state imaging device. In the CCD solid-state imaging device, there are provided a solid-state imaging element capable of being selectively operable in an all-pixel read out mode where signal charges of all pixels are independently read out at the same time instant, and in a thinning read out mode where signal charges are read out only from a portion of pixel columns along the vertical direction, and a timing generating circuit for generating at least one piece of a signal charge sweeping-out pulse used to discharge the signal charges of the respective pixels just after the signal charges are read out during an exposing time period immediately before a read out operation is transferred from the thinning read out mode to the all-pixel read out mode.

Abstract: A method for dark current subtraction which enables a dark frame to be reused for dark current subtraction for multiple image frames. The dark frame is reused by scaling it according to changes in the dark current levels associated with the dark frame and the image frames.

Abstract: There are provided a method for driving a solid-state image pickup apparatus, a solid-state image pickup device and a camera which enables fast operation and makes applicable of the conventional algorithm in signal processings by reducing the number of samples in the horizontal and vertical directions. Three or more odd number pixels in the solid-state image pickup device (1) are made one block, signal charges of predetermined pixels being thinned out to be transferred to transfer registers (4, 7), resulting signal charges being added within the transfer registers (4, 7) so that the center of gravity of pixels (pixel center) may coincide with a pixel at the center of one block and resulting mixed charge being transferred.

Abstract: According to a driving method for an interline type CCD imaging device, the voltage level to be applied to a channel electrode in a vertical charge transfer line to which at least one photodiode is connected is controlled to form a shallower potential well just in the channel. At least the voltage levels applied to channel electrodes in the VCCD connected to the PDs are controlled such that potential wells formed within respective channels becomes shallower.

Abstract: A solid-state image pickup device includes photoelectric converters in row-column matrix configuration, VCCDs, one for each column, a color filter disposed above each converter to form a color filter array including layouts each including n rows, and a drive circuit for conducting readout treating (m*n) rows as one set, and selecting from the sets a plurality of units symmetrically distributed. Electric charge is read from the plural units. A first readout operation reads electric charge from a first group of rows having asymmetric distribution. A j-row transfer operation transfers the electric charge for j rows. A second readout operation reads electric charge from a second group of rows having asymmetric distribution at positions to which the electric charges are transferred by the j-row transfer operation. The electric charges are added in the VCCDs.

Abstract: A charge transfer device having a charge transfer portion in which a plurality of electrode pairs are formed above a transfer channel, with the plurality of electrode pairs commonly wired forming N (where N=2, 3, 4, . . . natural numbers) bits of the charge transfer portion bits so that electrode pairs of each half bit can be independently driven at every N bits, inputting the electrode pairs of each half bit with the same drive pulse to operate it by a two-phase complementary drive in a normal operation, and in an N-time speed operation, inputting the electrode pairs of N bits with N pairs of complementary drive pulses to operate them by a 2N-phase complementary drive.

Abstract: One horizontal CCD register is provided for a plurality of vertical CCD registers. The horizontal CCD register has horizontal transfer electrodes in such a manner that transfer electrodes that are provided for each pair of vertical CCD registers adjacent to each other are independent of each other electrically. The eight transfer electrodes are supplied with eight kinds of horizontal transfer pulse signals, respectively. An operation that the horizontal CCD register consecutively outputs consecutive signal charges in the same manner as in the conventional two-phase driving method and an operation that the horizontal CCD register outputs consecutive signal charges while mixing desired ones are performed selectively by controlling the eight kinds of horizontal transfer pulse signals properly.

Abstract: The invention pertains to solid-state imaging devices and methods of operating the imaging devices for imaging objects having a wide dynamic range of illumination levels. The imaging device preferably comprises a two-dimensional array of photosensors, such as photodiodes, arranged in columns and even and odd rows. The photosensors accumulate signal charges corresponding to the incident light flux for an accumulation time. In one embodiment, the even and odd rows accumulate signal charges for different accumulation times. The signal charges from adjacent rows and the same column are preferably summed. In addition, the accumulation times for the even and odd rows preferably alternate between a first and a second accumulation time. Alternatively, alternate image fields acquire signal charge for alternating accumulation times. The longer accumulation time is set so that one or more of the photosensors saturates.

Abstract: A solid state image pickup apparatus is implemented as a digital still camera including a color filter having a G (green) square, RB (red and blue) full-checker pattern. An image pickup section includes exclusive transfer electrodes for preliminary pickup in addition to conventional transfer electrodes. A signal feeding section feeds field shift gate pulses to the exclusive electrodes during preliminary pickup or feeds them to the conventional electrodes during actual to pickup following the preliminary pickup. As a result, during preliminary pickup, signal charges are read out via the exclusive electrodes while being reduced in the horizontal direction. The image pickup apparatus improves the signal output rate during preliminary pickup despite high pixel density, or high image quality, and reads out signals without effecting actual pickup to follow.

Abstract: A solid-state image pickup apparatus includes photoelectric converter elements arranged in an array on a two-dimensional plane, vertical charge transfer paths respectively fabricated adjacent the photoelectric converter elements, vertical charge transfer electrodes for transferring charge one charge transfer stage by each transfer operation, a horizontal charge transfer path connected to end sections respectively of the vertical charge transfer paths for receiving transferred therefrom and for transferring the charge in a horizontal direction, horizontal charge transfer electrodes on the horizontal charge transfer path in a horizontal direction, an output amplifier connected to an end of the horizontal charge transfer path for amplifying charge from the horizontal charge transfer path, and a control circuit to drive the apparatus in an adding movie mode in which the control circuit reads charge, read from the photoelectric converter elements to the vertical transfer path, feeds the charge to all charge transf

Abstract: Provided is a CCD image sensor wherein driving power and power consumption are reduced without increasing unusable regions. Photodiodes are arranged in a honeycomb form. Each vertical charge-transfer channel is made in such a manner that invasion portions, which invade spaces between the respective photoelectric transducers in photoelectric transducer columns positioned at both sides thereof, and non-invasion portions are alternately and continuously arranged, and the channel extends in the vertical direction to meander between the photodiodes arranged in the honeycomb form. Transfer electrodes extending in the horizontal direction to pass between the photodiodes are formed on the semiconductor substrate as monolayer electrodes. By making the transfer electrodes as the monolayer electrodes in this way, multi-layered poly-silicon electrode structure becomes unnecessary.

Abstract: A pixel clock is switched to a high speed for reading culled pixel data from a CCD or switched to a low speed for reading all pixels from the CCD when picking up an image of an object, so that a main memory stores a first field initially read from the CCD and an RPU reads the first field from the main memory in synchronization with reading of a subsequent second field for executing a series of image processing in real time. The main memory stores the processed data. A CPU reads the processed data from the main memory, compresses the processed data and thereafter stores the same in a storage medium. Thus provided is an image processing circuit capable of increasing a frame rate for finder display and efficiently executing image processing at a high speed.

Abstract: An image pickup apparatus includes a solid-state image pickup element formed on a single semiconductor chip, the solid-state image pickup element including photoelectric conversion units arranged two-dimensionally, a plurality of CCDs for transferring charges generated by the photoelectric conversion units arranged two-dimensionally, each of the plurality of CCDs being arranged correspondingly to each line of photoelectric conversion units, a plurality of charge detection circuits for detecting the charges from the plurality of CCDs and supplying corresponding signal levels, each of the plurality of charge detection circuits being arranged correspondingly to each CCD, a common output line to which signals from the plurality of charge detection circuits are sequentially output, a plurality of transfer transistors for transferring the signals from the plurality of charge detection circuits to the common output line, and a scanning circuit for controlling the plurality of transfer transistors to sequentially out

Abstract: A digital camera includes a CPU. The CPU releases a bus according to a bus-release request from a memory control circuit, and supplies a bus grant signal to the memory control circuit. Accordingly, the image data from a first signal processing circuit is written into a VRAM according to DMA. When the writing of the image is ended, the memory control circuit cancels the bus release request. The CPU accesses to the VRAM through the bus, to utilize the VRAM as a working memory.

Abstract: A solid state image pickup device of an interline system. The device includes a plurality of photosensors, which are arranged in a matrix form, which receive light transmitted through a plurality of color filters, and which are repeated in the vertical direction at a period of “N” pixels. A vertical transfer unit is provided for transferring charges read out from the plurality of photosensors. A horizontal transfer unit is coupled to the vertical transfer unit, and is used to horizontally transfer the charges transferred by the vertical transfer unit. Charges are passed to the vertical transfer unit by a first signal supplying unit and a second signal supplying unit. At least one of the signal supplying units is made up of “m” first photosensor groups arranged in the vertical direction and second photosensor groups numbering “a” times as large as the pixel period “N” and which are also arranged in the vertical direction.

Abstract: To avoid mixtures of signal charges read out in an all-pixel read out mode and also in a thinning read out mode, a charge sweeping-out pulse is produced from a timing generating circuit of a CCD solid-state imaging device. In the CCD solid-state imaging device, there are provided a solid-state imaging element capable of being selectively operable in an all-pixel read out mode where signal charges of all pixels are independently read out at the same time instant, and in a thinning read out mode where signal charges are read out only from a portion of pixel columns along the vertical direction, and a timing generating circuit for generating at least one piece of a signal charge sweeping-out pulse used to discharge the signal charges of the respective pixels just after the signal charges are read out during an exposing time period immediately before a read out operation is transferred from the thinning read out mode to the all-pixel read out mode.

Abstract: Control gate sections capable of prohibiting transfer from vertical CCDs to a horizontal CCD of signal charges generated in selected regions of an imaging area in the horizontal direction are provided between the vertical CCDs to the horizontal CCD. This configuration allows reading of signal charges only in a particular region in the horizontal direction. As a result, high-speed imaging can be realized without increasing the drive frequency.

Abstract: A solid-state imaging element comprising a plurality of light-receiving sensors that convert optical signals into electrical signals and a memory storing the electrical signals. The memory is formed of a plurality of line buffers corresponding to the pixel units processed in an image data encoder. The solid-state imaging element eliminates the need to rearrange image data for encoding.

Abstract: A solid-state image pickup apparatus includes a color filter including complementary color filter segments. When a shutter release bottom is pressed to its half-stroke or full-stroke position, light incident via the filter is picked up in a movie/photometry or a still picture mode, respectively. While signal charges are read out of an image sensor in accordance with the mode, the signal charges are digitized to become pixel data. In the movie/the photometry mode, despite that a plurality of pixel data are mixed together, a set of primary color pixel data are generated as if pixel signals were thinned out by mixture. In the still picture mode, all the pixels are sequentially read out and interpolated to generate primary color pixel data greater in number than photosensitive cells. The primary color data are raised in frequency to enhance the resolution of a picture.

Abstract: An image sensing apparatus includes a CCD having photodiodes, vertical shift registers, and a horizontal shift register; a signal generator supplying pulses for driving the CCD; a light shading element such as a mechanical shutter which shades incident light to the CCD; and a driver controlling the light shading element. The image sensing apparatus performs high-speed discharging of the vertical shift registers from the starting end of the frame next to a frame where a record trigger is generated, and performs charge storage operation into the photodiodes partially in parallel with high-speed discharging. Further, the image sensing apparatus stops high-speed discharging at the same time as completion of the charge storage operation, furthermore, and completely shades the CCD by performing a closing operation of the light shading element within a residual period of the same frame.

Abstract: The invention is intended to provide a highly integrated solid-state image pickup device, in which the number of transfer electrodes of a horizontal shift register is reduced, and a plurality of vertical shifter registers are arranged with a reduced pitch therebetween. Output-control gate electrodes are disposed at an output end of the vertical shift registers. These output-control gate electrodes are operated independently from vertical transfer gate electrodes, and temporarily reserve information charges. Horizontal transfer gate electrodes corresponding to the vertical shift registers on odd-numbered columns are turned on, so signals charges in these vertical shift registers are read into a horizontal shift register. During horizontal transfer of these information charges, information charges of vertical shift registers on even-numbered columns are reserved, for half of a horizontal scanning period, in output ends of the vertical shift registers by the output-control gate electrodes.

Abstract: A solid-state image sensing device includes photoelectric conversion portions, vertical charge transfer portions, a horizontal charge transfer portion, an unwanted charge removing portion, and a potential barrier portion. The photoelectric conversion portions are arranged on an n-type semiconductor substrate. The vertical charge transfer portions are respectively arranged adjacent to the photoelectric conversion portions, and have a first p-type well layer and a first n-type semiconductor region. The horizontal charge transfer portion is arranged adjacent to one end side of the vertical charge transfer portions, and has a second p-type well layer and a second n-type semiconductor region. The unwanted charge removing portion is arranged adjacent to the horizontal charge transfer portion to remove an unwanted charge overflowing from the horizontal charge transfer portion. The unwanted charge removing portion has a third p-type well layer and a third n-type semiconductor region.

Abstract: For obtaining both still and moving images in satisfactory manner in an image pickup device, in addition to a circuit for generating a moving image, frame recursive filters 18, 19, 20 and an interface circuit 21 are provided for generating a still image. Wide-band color signals R, G, B generated from the signals obtained from the CCD are subjected to a filtering process in the frame recursive filters 18, 19, 20 and the image retained in the filters 18, 19, 20 as a result of the filtering process is released as a still image under the control by the interface circuit 21. Thus the still and moving images can be generated respectively according to the required characteristics, without color blotting or color aberration and without deterioration in the color reproducibility and in the S/N ratio.

Abstract: In an image recording apparatus, an imaging surface of an image device is formed so as to store and read out an image by arranging two-dimensionally a plurality of photoelectric transfer elements, the imaging surface is divided along lines into a plurality of blocks, scanning lines are formed in accordance with the photoelectric transfer elements arranged in a horizontal direction of the respective divided blocks, and the plurality of scanning lines of the respective blocks are parallelly linearly scanned to output a multichannel video signals.

Abstract: A charge-coupled device image sensor comprises a matrix array of photodiodes and a horizontal charge-coupled device (CCD). First vertical CCDs are provided, each on one side of each column of the photodiodes for receiving charge packets from the photodiodes of odd-numbered rows and moving the charge packets to the horizontal CCD and second vertical CCDs are provided, each on the other side of each column of the photodiodes for receiving charge packets from the photodiodes of even-numbered rows and moving the charge packets to the horizontal CCD. The horizontal CCD receives the charge packets from the first and second vertical CCDs and transfers the received charge packets to external circuitry. According to a modified embodiment, a second horizontal CCD is provided for receiving the charge packets from the second vertical CCDs.

Abstract: A charge transfer structure (30) includes a substrate comprised of semiconductor material and, coupled to a surface of the substrate, a plurality of serially coupled devices each having a gate terminal. The plurality of serially coupled devices include a first single port device (D1) defining a first primary charge storage well, a second single port device (D3) defining a second primary charge storage well, a first two port device (D2) defining a first transfer device, a second two port device (D4) defining a second transfer device, and two instances of a third two port device each defining a cascode device (CD). The ports of these devices are serially coupled together in an order given by D1, D2, CD, D3, D4, CD for transferring charge between the first and second primary charge storage wells. Charge is inserted into and withdrawn from each of the first and second primary charge storage wells through a single diffusion that functions as both an input port and an output port.

Abstract: Shunt wirings (12) in the form of a conductive light intercepting film which covers over vertical CCD registers and also serves to supply power, project into locations between adjacent photoelectric transducers (11) in the vertical direction, and the distance between the projecting portions of adjacent ones of the metal wirings is set to 0.2 .mu.m or less and is limited to a distance with which an electric field between adjacent ones of the metal wirings is 10.sup.7 V/cm or less and the adjacent metal wirings do not suffer from short-circuiting.

Abstract: An electronic still camera requires a solid-state image sensing apparatus capable of providing a higher-speed pickup image signal having a high vertical resolution. In a line reducing operation to reduce the number of lines of the pickup image signal to be output by applying read-out pulses to read-out gate units located at predetermined intervals in order to read out only signal electric charge from sensor units for picture elements arranged in the vertical direction on some lines, a vertical CCD is driven by a combination of a pair of vertical transfer clock signals .o slashed.V1 (.o slashed.V1') and .o slashed.V3 (.o slashed.V3') having phases opposite to each other and another pair of vertical transfer clock signals .o slashed.V2 and .o slashed.V4 also having phases opposite to each other, allowing the overlap period twice the vertical transfer clock signals to be lengthened.

Abstract: To image a detection object 302 transferred on a transfer path 301 by an imaging device 310, a trigger signal TRIG is obtained by detecting the detection object 302 by an object sensor 303, and operation of the imaging device 310 is controlled by an imaging control device 320 in response to the trigger signal TRIG.

Abstract: An image pick-up apparatus and imaging system wherein a position sensor 3 detects position of a moving object 2 transferred along a transfer path 1 to deliver a trigger signal TRIG-IN to a control unit 20 and an image taking-in unit 30. At the image taking-in unit 30, external synchronizing signals EXT-HD, EXT-VD are delivered from a synchronizing signal generating section 31 to a synchronizing signal generating section 21 of the control unit 20. In addition, write enable signal WE corresponding to the trigger signal TRIG-IN is delivered, from a write enable signal preparation section 33, to a memory 32 and to a modulated HD signal generating section 22 of the control unit 20. The control unit 20 generates a modulated horizontal synchronizing signal TG-HD in accordance with the trigger signal TRIG-IN by the modulated HD signal generating section 22 to deliver it to a CCD camera 10, and to control output timing of a video signal VIDEO from the CCD camera 10 on the basis of the write enable signal WE.

Abstract: A method driving for a solid-state image pickup device in which it is possible to achieve a high dynamic range readout without causing unnaturalness in the reproduced picture particularly even when filming a subject moving at high speed. Primary signal charges are generated by adjacent first and second pixels and are subsequently mixed in the vertical transfer register. Auxiliary signal charges are also generated in adjacent first and second pixels, and, generation of the primary signal charge for the second pixel occurs prior to generation of the auxiliary signal charge of the first pixel.

Abstract: A method and apparatus are provided for CTD imaging device multiple read-out speeds with optimized operation at all of the available speeds. Image signals from a CTD imaging device are digitally sampled at a defined frequency with the read-out electronics being matched to the defined frequency for optimum operation at that frequency. Digital samples taken during both a first (reset reference) portion of each image signal and a second (image voltage) portion of each image signal are then discarded if taken during a noisy/unstable part of the image signal or accumulated and averaged if taken during a stable part of the image signal. The accumulated and averaged digital samples are then algebraically combined to produce signals representative of an image generated by the CTD imaging device. The read-out speed of the CTD imaging device is a fraction of the sampling speed and can be selected by setting an integer divisor for the defined sampling frequency.