Abstract: A camera phone and method for automatically adjusting the exposure of a camera in order to improve image of an object is previewed with a current exposure, data is extracted from frames of the previewed image and analyzed to determine illumination of the previewed object, and an exposure is adjusted according to the analyzed result.

Abstract: An apparatus and method for detecting a failed reset in a pixel are described. First, a reset proxy signal that is received. Second, a reset reference signal is received. The reset proxy signal and the reset reference signal are compared. Based on the comparison, a reset status signal is generated. The reset status signal indicates that a failed reset has been detected or that a failed reset has not been detected.

Abstract: A high speed video camera 10 comprises a camera body 20 and a camera lens 30. The rear of the camera body 20 is formed with a handle 40 adjacent to rear face 50 of the camera. Mounted upon or within the handle 40 is a plurality of status LED 60, preferably in a horizontal row. A camera micro processor controls an LED driver which drives the status LED 60 commonly but independently. This permits various different patterns or sequences to be generated, in turn to provide an indication, to a remote user, a plurality of different camera statuses.

Abstract: An intermittent photo-taking device for a microscope includes a condition setting means that sets an intermittent photo-taking condition composed of a given time lapse and the number of frames to be photo-taken, an image obtaining means that obtains an image taken under the intermittent photo-taking condition, a setting change means that changes the intermittent photo-taking condition in the middle of an operation based on the intermittent photo-taking condition set by the condition setting means, and a memory that, when the intermittent photo-taking condition has been changed by the setting change means, stores an image taken under the changed intermittent photo-taking condition following an image taken under the intermittent photo-taking condition before changing.

Abstract: A circuit for reducing a mismatch between a reference path to which a reference voltage is applied and an intensity path to which an intensity voltage is applied from an active pixel sensor comprises a first and a second pair of switches and a processing circuit. The first pair of switches couple an intensity input node to which the intensity voltage is applied to a first output node and couple a reference input node to which the reference voltage is applied to a second output node during a first operating period. The second pair of switches couple the intensity input node to the second output node and couple the reference input node to the first output node during a second operating period. A polarity reversing circuit is included in the processing circuit for coupling the first and second output nodes to the processing circuit with one polarity during the first operating period and in a reverse polarity during the second operating period.

Abstract: An image signal generated by a CCD image sensor is processed by the block-generating section 28 provided in an image-signal processing section 25. A class tap and a prediction tap are thereby extracted. The class tap is output to an ADRC process section 29, and the prediction tap is output to an adaptation process section 31. The ADRC process section 29 performs an ADRC process on the input image signal, generating characteristic data. A classification process section 30 generates a class code corresponding to the characteristic data thus generated and supplies the same to an adaptation process section 31. The adaptation process section 31 reads, from a coefficient memory 32, the set of prediction coefficients which corresponds to the class code. The set of prediction coefficients and the prediction tap are applied, thereby generating all color signals, i.e., R, G and B signals, at the positions of the pixels which are to be processed.

Abstract: Methods and systems for remote imaging include providing in substantially real time one or more images of an object captured with an imaging system to one or more client systems at one or more locations remote from the imaging system. In substantially real time, one or more instructions to interact with the imaging system are received from at least one of the client systems. In response to the instructions, one or more operations are executed at the imaging system and one or more updated images are provided to the client systems in response to the execution of the operations.

Abstract: An image processing apparatus for correcting red eye phenomenon in photographic image data.

Abstract: Within a digital acquisition device with a built in flash unit, the exposure of an acquired digital image is perfected using face detection in the acquired image is provided. Groups of pixels that correspond to plural images of faces are identified within a digitally acquired image, and corresponding image attributes to the group of pixels are determined. An analysis is performed of the corresponding attributes of the groups of pixels. It is then determined to activate the built-in flash unit based on the analysis. An intensity of the built-in flash unit is determined based on the analysis. Alternatively based on similar analysis, a digital simulation of the fill flash is performed on the image.

Abstract: An inter-line CCD(IT-CCD) capable of reading signals in two read modes, a field read mode and a frame read mode, is used to control, by a system control means, a CCD exposure and a signal read mode, a short-time exposure signal(Short signal) acquires an image by a field read and a long-time exposure signal(Long signal) acquires an image by a frame read, and these two images are synthesized by a signal synthesizing means to expand a dynamic range.

Abstract: An information processing method for processing a file containing reversibly compressed or non-compressed digital image data obtained by digitally converting a signal that has been output from an image sensing device makes it possible to execute selectively signal processing of a plurality of types by using any of at least a plurality of types of luminance signal generating processing methods and/or a plurality of types of color signal generating processing methods for converting the digital image data contained in the file to data having a prescribed format. The method includes automatically selecting signal processing to be used from among the plurality of types of signal processing based upon information contained in the file, and causing the selected signal processing to be executed so that the digital image data contained in the file is converted to data having the prescribed format.

Abstract: An image pickup apparatus including a photoelectric conversion element, first, a shutter speed for still-image pickup is set. Next, an image-pickup frame rate is set on the basis of the shutter speed for still-image pickup. Then, an operation of the photoelectric conversion element is controlled such that picked-up images are output at the set image-pickup frame rate. When the image-pickup frame rate that is set is higher than a moving-image-reproducing frame rate, a frame for use in a moving-image reproduction is generated from a plurality of frames of the picked-up images and reproduction is performed at the moving-image-reproduction frame rate.

Abstract: An imaging device according to one aspect of the present invention has a CCD, a mechanical shutter which prevents transmission of incident light beams to the CCD, a main CPU which sequentially reads stored electric charges obtained by the CCD in a plurality of field cycles and calculates a signal amplification rate based on an image signal which relies on the stored electric charge read to the last field of the plurality of field cycles, and a non-volatile memory which stores the signal amplification rate. The above-described calculation may be executed by an external PC.

Abstract: An image composition method comprises: composing a high-sensitivity image signal H and a low-sensitivity image signal L, so as to generate a composite image signal Gc according to a composing expression: Gc=k·H+(1?k)·L where k is a composite parameter satisfying 0?k?1, wherein the high-sensitivity image signal H is generated based on high-sensitivity image outputs from corresponding ones of a plurality of pixel positions in a solid-state imaging element that has imaged a subject; the low-sensitivity image signal L is generated based on low-sensitivity image outputs from corresponding ones of the plurality of pixel positions in the solid-state imaging element; and the composing is performed at every common pixel position by determining k at every common pixel position.

Abstract: An image pickup apparatus which makes it possible to obtain a suitable exposure value even if the brightness of the subject changes just before photography preparations and is capable of achieving both of acceleration of photography preparations and high precision exposure control. A ranging control section 42 carries out focus detection control on a subject image in a plurality of control modes. An exposure control section 40 repeatedly carries out feedback exposure control of the subject image so as to maintain proper brightness of an image obtained from an image pickup device 14. A system control circuit 50 controls the exposure control section 40 so as to carry out the feedback exposure control before execution of the focus detection control according to a selected one of the control modes of the raging control section.

Abstract: An image capturing apparatus includes an image capturing unit for capturing an image of an object; a light quantity storing unit for storing light quantity of the object which is outside of an image capturing region of the image capturing apparatus by corresponding the light quantity to a positional relationship between the image capturing unit and the object; an image capturing region variation detecting unit for detecting variation in the image capturing region of the image capturing unit; a positional relationship estimating unit for estimating a positional relationship between the image capturing unit and the object after the positional relationship between the image capturing unit and the object is varied on the basis of the variation in the image capturing region detected by the image capturing region variation detecting unit; and an image capturing condition control unit for controlling an image capturing condition by the image capturing unit on the basis of the light quantity stored by the light quant

Abstract: A video camera which is provided with an inter-line type CCD and also which enjoys a function as a digital still camera. The video camera includes an irising mechanism for adjusting a quantity of light incident upon the CCD, an iris driving circuit for driving the irising mechanism, and a camera microcomputer for controlling operations of adjusting an incident-light quantity by the irising mechanism by controlling the iris driving circuit. The camera microcomputer controls the iris driving circuit to drive the irising mechanism, whereby the incident light upon the CCD is blocked to perform only a read-out operation while data of all the pixels is read out from the CCD.

Abstract: An imaging portion performs imaging of a subject. A time lapse imaging condition setting portion sets a time lapse imaging condition including at least an exposure time and an imaging interval, prior to the imaging of the subject by the imaging portion. A determining portion determines a contradiction of the time lapse imaging condition set by the time lapse imaging condition setting portion according to a predetermined criterion. A presenting portion presents at least information relating to the contradiction of the time lapse imaging condition based on a determined result by the determining portion.

Abstract: The electronic camera has an imaging device that images a subject with subject reflectance R (%) with a dynamic range wider than that at displaying or printing to acquire image data and a recording device that converts the image data acquired by the imaging device with a predetermined function and records the converted image data and the information on the function as digital values (digit). Therefore, a printed image with an automatically or manually corrected density can be obtained at the displaying or the printing.

Abstract: A system and method for increasing space or time resolution of an image sequence by combination of a plurality input sources with different space-time resolutions such that the single output displays increased accuracy and clarity without the calculation of motion vectors. This system of enhancement may be used on any optical recording device, including but not limited to digital video, analog video, still pictures of any format and so forth. The present invention includes support for example for such features as single frame resolution increase, combination of a number of still pictures, the option to calibrate spatial or temporal enhancement or any combination thereof, increased video resolution by using high-resolution still cameras as enhancement additions and may optionally be implemented using a camera synchronization method.

Abstract: An imaging apparatus having an automatic exposure function includes: an imaging section which images a photographic subject, and which obtains image data according to the photographic subject; and a controller configured to: judge whether or not imaging conditions at the time of imaging by the imaging section are backlight conditions; perform a first exposure control in which a compensation for the backlight conditions is performed, when the imaging conditions are judged to be the backlight conditions; detect a face of a person from image data generated based on the image data obtained by the imaging section and on a result of the first exposure control; perform a light meter test on a face area of the detected face of the person as a light metering area; and perform a second exposure control in which an exposure-amount based on a result of the light meter test of the face of the person is calculated, and in which an exposure control for recording is performed based on the calculated exposure-amount.

Abstract: A method of improving a digital image captured by a digital camera comprising: providing a digital camera having a memory for storing known values of a color chart having a plurality of color patches of different colors and a digital image processor, using the digital camera to capture an image of the color chart to produce image values of the color patches of the color chart; operating the digital image processor to process at least some of the color patch imaged values and the stored known values of the color patches to produce a color correction matrix or profile; and storing the color correction matrix or profile to correct color images subsequently acquired by the digital camera.

Abstract: Methods and apparatus for digitally enhancing images are disclosed. In one embodiment, a method includes analyzing an acquired image to provide a high sensitive low light image and a low sensitive high light image, and then summing the high sensitive low light image and the low sensitive high light image to create an enhanced image.

Abstract: This invention provides an image processing apparatus that corrects an image blur by using a plurality of images acquired by image capturing means. The apparatus comprises: blur detection means that detects a blur amount between the plurality of images; image composition means that performs the composition of the plurality of images using the detected blur amount; acquisition means that acquires, based on a difference value between the plurality of images and a threshold value thereof, region data for separating the image into regions by changing the threshold value; and display means that selectably displays the region data for each threshold value.

Abstract: When an acquired image file GF includes image processing control information GI, a CPU executes image quality adjustment of image data GD in an image processing mode GM specified by the image processing control information GI. When the acquired image file GF does not include the image processing control information GI, on the other hand, the CPU retrieves Exif information and in the case of successful retrieval of the Exif information, selects the image processing mode GM based on the Exif information and executes image quality adjustment of the image data GD in the selected image processing mode GM. In the case where a selected shooting mode is described in the Exif information, the selected shooting mode is used for the selection of the image processing mode GM. In the case where no selected shooting mode is described in the Exif information, on the other hand, another shooting condition is used for the selection of the image processing mode GM.

Abstract: An image device for capturing a still image and a control method thereof are provided. The image device includes a storage unit for storing compressed pictures of a moving image, and a control unit for extracting at least one of the compressed pictures, which corresponds to a scene selected from the moving image being displayed, from the storage unit. Accordingly, in extracting the still image from the moving image, a data processing time can be reduced and deterioration of a picture quality of an image can be prevented.

Abstract: An image taking apparatus installed with an image blur correction unit for correcting image blur by combining images, so image taking time in a case of continuous shooting of the images is prevented from being long and operations are carried out in a manner in which a photographer does not feel disorder. Combination of a second frame and a third frame that are taken with split-exposure is started from a frame that is prior by two frames in terms of time. Thereby the number of times of split-exposure operations necessary to obtain three combined images is eight, so the image taking time is made to be shorter compared to a case of simple continuous combination of the images. Further, the three combined images produced in this way include a portion overlapped in terms of time, however, the combined images are images different from one another that are continuous in terms of time, so the photographer does not feel disorder as long as setting is made as to how many frames are shifted for combination.

Abstract: In an imaging device of the present invention, an imaging element 2 is driven in a thinning read-out mode for reading out signal charges from a subset of pixels, or in an all-pixels read-out mode for reading out signal charges from all pixels. When the imaging element 2 is driven in the thinning read-out mode, the imaging device processes and records a series of first image data that is obtained by reading out signal charges from the subset of pixels and that constitutes the moving images. When the imaging element 2 is driven in the all-pixels read-out mode, the imaging device processes and records a series of second image data constituting moving images after the number of pixels of the second image data is thinned, and processes and records a portion of the second image data as a still image without thinning when an instruction to pick up the still image is given while picking up the moving images.

Abstract: There is provided an electronic camera comprising an imaging element which photo-electrically converts an object field light, a timing generator including an internal register in which timing of a drive signal used to operate the imaging element can be programmed, a power supply control portion which supplies a second voltage to the imaging element when a predetermined time has elapsed after supply of a first voltage to the timing generator, and a control portion which starts at least program setting in the internal register of the timing generator after elapse of a time that the timing generator requires to operate stably at the first voltage and before elapse of a time that the imaging element requires to operate stably at the second voltage.

Abstract: An apparatus and method for adapting a sensor aspect ratio to a print aspect ratio in a digital image capture device is disclosed In one embodiment, the invention is an apparatus for capturing digital images, comprising an image sensor including a plurality of image capture elements, each of the image capture elements configured to capture image data, an input element for communicating print size information to the apparatus, and logic for determining which of the plurality of image capture elements correspond to the print size.

Abstract: An image display method and a device to secure high quality of image are provided. The image display apparatus includes a photo sensitive module having a plurality of sub sensing areas corresponding to a plurality of lens areas, an exposure control module to set exposure starting times of the sub sensing areas to be different from each other, an intermediate image to produce module interpolating a plurality of original images captured by the sub sensing areas to produce a plurality of intermediate images that correspond to the original images, and a final image to produce module rearranging the intermediate images according to the order of the original image to produce final images.

Abstract: A digital camera has a display processor, a photographing processor, and a display controller. The display processor displays a moving image on a display on the basis of image-pixel signals read from an image sensor successively. The photographing processor carriers out an exposure in accordance with the operation of a release button, to record a still image. Then, the display controller stops or suspends the action of the display processor within a given period, which is from the start of the exposure to the start of the reading of image-pixel signals corresponding to the still image.

Abstract: An improved handheld electronic device includes an improved battery compartment door having a miniature camera disposed thereon. The battery compartment door with its camera advantageously does not alter the form factor of the handheld electronic device and can easily be replaced with a similar battery door without a camera which, when installed on the handheld electronic device, will provide the same form factor. A battery compartment of the handheld electronic device is configured to be larger than required to accommodate a battery of the handheld electronic device in order to also accommodate the camera of the battery compartment door.

Abstract: A digital camera is disclosed, which has a still image shooting mode and a moving image shooting mode, and performs different focusing operations between the still image shooting mode and the moving image shooting mode. According to present invention, the range of focusing tolerance or the driving speed of a focusing optical system can vary between the still image shooting mode and the moving image shooting mode such as to set the range of focusing tolerance wider or the driving speed of the focusing optical system slower in the moving image shooting mode.

Abstract: An image sensing apparatus that carries out image sensing continuously and inputs a plurality of images, having a digital signal processing circuit that detects, at each input image, from image data thereof, an object that satisfies a preset condition, a first exposure value determination unit that calculates a first exposure value from the image data, a second exposure value determination unit that calculates a second exposure value based on the detected object, and a selection unit that selects either the first exposure value, the second exposure value, a currently set exposure value, or an exposure value calculated based on a luminance of an area referenced when calculating a currently set exposure value as an exposure value to be used for a next image sensing based on object detection results obtained by the digital signal processing circuit.

Abstract: The electronic camera, and image display method and image recording method applied thereto are capable of eliminating discontinuity in moving image caused by a camera control such as interruption by still image recording in moving image capturing and aperture switching. With respect to the period during which the capturing of the image data of moving image is interrupted, an image picked-up immediately before the interruption is repeatedly displayed or recorded. As to the moving image recording, supplementary recording for non-recording period may be performed afterward by utilizing an image immediately after resuming the reading of movie image. Moreover, display of non-image screen (“non-display”), recording of black screen (“black recording”) or display or recording of a special image can be inserted if necessary, thus giving an impression that the shutter is clicked.

Abstract: An image processing system automatically generates a seamless and continuous developed still image with little distortion by creating a developed diagram in the circumferential direction of a tube from one frame of a video image of an inner wall of a tubular object photographed by a video camera while moving in the axial direction of the tubular object and stitching the developed diagrams with each other in the longitudinal direction (i.e., on a central axis) of the tube by mosaic processing.

Abstract: An image processing system includes: an image capturing apparatus for obtaining an image of a subject, having a setting unit, which sets an obtaining condition for the image according to user's operation, and an outputting unit, which outputs the obtaining condition in association with the image; and an image processing apparatus for performing an image processing for the image, having a receiving unit, which receives the image and the obtaining condition, an image processing unit, which performs an image processing for the image, and a controlling unit, which controls the image processing unit based on the obtaining conditions.

Abstract: Maximum and minimum aperture sizes are regulated with regard to a diaphragm in order to secure predetermined optical capability in an optical unit which includes a taking lens and the diaphragm. In a normal taking, the diaphragm is used within a normal taking range from the maximum to the minimum aperture sizes. In the present invention, an aperture size which is larger than the maximum size and a size which is smaller than the minimum size (extra aperture size or extra small size) are respectively set at outside the range that secures the capability. The aperture sizes of the diaphragm at outside the specified range are used at least for one of the following: automatic exposure (AE) adjustment, auto focus (AF) adjustment, electronic zoom, displaying a moving image, taking for recording the moving image, and taking under a low resolution by thinning out pixels.

Abstract: An imaging apparatus for a microscope comprises light receiving means having a plurality of light receiving segments arranged two-dimensionally for receiving an observed image on the microscope, extracting means for extracting light receiving outputs in a predetermined level range from the light receiving outputs of the respective light receiving segments of the light receiving means, exposure calculating means for performing an exposure calculation based on an average value of the light receiving outputs extracted from the extracting means, exposure control means for performing exposure control of the light receiving means in accordance with an exposure time calculated by the exposure calculation means, and image acquiring means for acquiring a taken image corresponding to the observed image from the light receiving outputs of the light receiving segments after the exposure control.

Abstract: A monolithic integrated circuit includes programmable processing circuitry. The processing circuitry includes four programmable circuitry elements. Switching circuitry is operatively connected to the programmable circuitry elements and is configured to provide data communication between the circuitry elements. An image sensor interface is connected to the processing circuitry and is configured to receive signals from an image sensor and to pass data representing the signals to the programmable processing circuitry.

Abstract: An exposure control device accurately adjusts exposure even when photographing the operator. An area-integration circuit divides a photographed image into a central area and a peripheral area to integrate corresponding video signals for the respective areas. When the operator of a notebook personal computer sets the direction of an image pickup unit to photograph himself a control microcomputer multiplies the respective areas by weights so that the weight of the central area is larger than the others, and then it adds the two integration results. The control microcomputer sets the addition result as exposure information, compares the exposure level indicated by the information with a reference level, controls an electronic shutter of an image pickup device and a gain of an amplifier circuit so that the exposure level coincides with the reference level, and adjusts the exposure of a video camera to a proper level.

Abstract: A method of making a digital photograph composed of a moving water element and still element by applying a known computer image processing system, and a digital photograph made by this method, involves taking a basic photograph indicating a realistic image of still elements and photographs taken by applying a series of shutter speeds. A series of digital images corresponding to the above-mentioned photographs are indicated on a monitor of the processing system, and an image indicating a realistic image of the moving water element is selected from the series of digital images. A color matching operation is them applied to the selected digital image whereby a final digital image having a still element substantially color matched to that of the basic photograph and a realistic image of a moving water element is indicated on the monitor, and thereafter a realistic digital photograph is printed based upon the final image.

Abstract: A digital camera includes a CCD imager. When a display-use UYV signal is generated on the basis of an RGB signal of an object image photographed by the CCD imager, a CPU detects a color saturation degree of the RGB signal and reduces dynamic range of a U signal and a V signal on the basis of the detected color saturation degree. Thus, a color on the basis of the U signal and the V signal is aboundingly included within a color reproducing range of a monitor.

Abstract: An image extracting apparatus includes an image database in which a plurality of images are stored, a detecting portion which detects the orientation of a subject in an image, and an extracting portion which extracts an image including a subject in a predetermined orientation from the image database based on the result of the detection by the detecting portion.

Abstract: Wide dynamic range operation is used to write a signal in a freeze-frame pixel into the memory twice, first after short integration and then after long integration. The wide dynamic range operation allows the intra-scene dynamic range of images to be extended by combining the image taken with a short exposure time with the image taken with a long exposure time. A freeze-frame pixel is based on voltage sharing between the photodetector PD and the analog memory. Thus, with wide dynamic range operation, the resulting voltage in the memory may be a linear superposition of the two signals representing a bright and a dark image after two operations of sampling.

Abstract: An OB level difference is calculated from the luminance signal levels of at least two frames which are exposed for proper exposure time and for exposure time different from the proper exposure time, and the OB level difference is corrected in an input step of a signal processing circuit. Calculation of the OB level difference is performed regularly from immediately after power on of the equipment, the OB level difference obtained in each frame is multiplied, and a value obtained by dividing the multiplied OB level difference by the number of sampled frames is designated as a correction value.

Abstract: First image data and second image data are generated by capturing a subject image at a CCD. The first image data captured over a first exposure time manifest a relatively small extent of image blur. The second image data are captured over a second exposure time set longer than the first exposure time. A spatial frequency analysis is implemented on the first image data and the second image data to calculate the amplitude ratio and the phase difference of the high-frequency components in the two sets of image data. Based upon the amplitude ratio and the phase difference of the high-frequency components thus calculated, the spatial frequency component of the second image data is corrected to generate third image data in which any image blur has been corrected.

Abstract: An image sensor for capturing image, has: a plurality of pixels arranged in a matrix each including a photoelectric conversion element for generating current according to received light intensity and a reset transistor for resetting a node of the photoelectric conversion element to a reset potential; and a sample hold circuit for sample holding a pixel potential according to the potential of the node of the pixel. And the sample hold circuit outputs the differential potential, between a first pixel potential at an end of the integration period after a first reset operation of the pixel and a second pixel potential at an end of a reset noise read period after a second reset operation after the integration period, as a pixel signal. Also in the sample hold circuit, when the second pixel potential during the reset noise read period exceeds a predetermined threshold level, the second pixel potential is set to a predetermined reference potential.

Abstract: In an electronic camera, an exposure amount S ( 1/2000 sec.), an exposure amount M ( 1/250 sec.) and an exposure amount L ( 1/30 sec.) are set in vertically synchronous signal timing directly before the fourth frame, the fifth frame, and the sixth frame. In the frame directly following that setting, exposure is performed corresponding to that exposure amount. The signal levels obtained from the three exposure amounts are compared in the eighth frame, and an added value ? is added to the shutter time in which the signal level obtained is closest to the optimum signal level. This time is set in vertically synchronous signal timing directly before the ninth frame. In the ninth frame, exposure is performed corresponding to this setting. In the tenth frame, the signal is readout according to this exposure. In the eleventh frame, the signal calculation is performed. The processing is repeated in the same way thereafter and the optimum exposure amount is determined.