Abstract: An image pickup apparatus capable of increasing the number of pixels in a reproduced image without a decline in image quality of a picked up image is provided. The image pickup apparatus includes: an image pickup lens section including an aperture stop, the aperture stop including a plurality of aperture sections; an image pickup device obtaining image pickup data on the basis of light received; and a microlens array section being arranged on the focal plane of the image pickup lens section between the image pickup lens and the image pickup device, and including one microlens for a plurality of pixels of the image pickup device.

Abstract: A movable sensor including a plurality of photo pixel sites arranged in an array comprising a photo sensor and a neutral density filter filtering the photo sensor. Each of the neutral density filters have a density value that are graduated over a range of densities. The sensor is linearly movable across an image. Each point in the image is exposed to at least one pixel site with the graduated density values and each of the photo pixel sites of the array is exposed to a same light input during a time span of exposure, such that the image is captured at a defined range of exposure values and can be combined into a single high dynamic range image.

Abstract: An image pickup apparatus that records a picked-up image and time information indicating when the picked-up image was picked up includes a unit that obtains location information and UTC and generates positioning information indicating the obtained result, a unit that determines the time difference between the time corresponding to the location information and UTC using the location information, a unit that calculates the local time of a location indicated by the location information using UTC and the time difference, and a unit that performs correction of a system time of the image pickup apparatus when the time difference between the system time and the local time exceeds a predetermined time period and that causes the correction of the system time to be delayed until after the completion of a recording operation of the picked-up image when the recording operation is being performed.

Abstract: An image processing apparatus includes a tone conversion section configured to execute luminance tone compression on an entered image by use of a predetermined conversion curve; a linear matrix processing block configured to execute correction based on matrix operation on an image entered via the tone conversion section; and a hue and saturation adjustment block configured to execute hue and saturation conversion processing based on a set parameter on an image entered via the linear matrix processing block. The apparatus further includes a brightness decision block configured to determine whether brightness of the image to be processed is lower than a certain brightness level; and a control block configured to control a combination of the operations to be processed by the processing section and blocks on the basis of setting of a tone conversion function of the tone conversion section and a decision result obtained by the brightness decision block.

Abstract: An evaluation value for a pixel in an eye region in an image is computed, which is increased with increase in the redness of the pixel and with decrease in the luminance of the pixel. Furthermore, a color saturation value for the pixel included in the eye region is corrected with the use of a luminance value for a surrounding region around an eye and the evaluation value. In this case, the color saturation value is corrected such that the amount of correction is smaller in a case in which the luminance value is smaller even with the same evaluation value, thereby achieving improvement in the correction factor of and prevention of false corrections of a redeye region with a low color saturation and a low luminance.

Abstract: An image processing circuit/CPU performs AF processing in response to a halfway shutter operation and upon confirmation of a shooting shutter instruction causes a light emitting unit in a flash circuit to emit light, and decides an amount of light to be emitted at a shooting time based on a brightness component of an output signal of an imaging element, whereby a subject distance is calculated from the amount of light emitted at shooting time, and wherein, when the in-focus decision in the AF processing is negative, an optical lens is moved by a lens drive circuit to a position corresponding to the subject distance which has been acquired based on the amount of light emitted at the shooting time, and a shooting operation is then performed.

Abstract: To improve the consumer experience with portable electronic devices, a high-resolution digital camera function is incorporated into a multifunction portable electronic device. In exemplary embodiments, a clamshell portable electronic device, such as a mobile telephone, is provided with a digital camera/video function. The lens of the camera/video function is separated from an image sensor in a manner such that the two are not linearly aligned. Light coming through the lens is reflected by a reflective element, such as prism, onto the image sensor. The sensor is movable relative to a fixed position of the prism to provide an auto focus feature. In an exemplary embodiment, the sensor is movable along a portion of the width of the portable electronic device, the width being substantially greater in distance than the thickness of one of the clamshell portions.

Abstract: A fixed pattern noise removal circuit is provided for removing vertical streak fixed pattern noise from an output signal of an image sensor including an output system for every predetermined number of columns. The fixed pattern noise removal circuit includes a correction signal output unit configured to output a correction signal corresponding to the output system in accordance with an offset component and a light-intensity-dependent component of the fixed pattern noise occurring in the output system, and a signal correction unit configured to remove the fixed pattern noise from the output signal of the image sensor on the basis of the correction signal output from the correction signal output unit.

Abstract: Systems and methods of event management for camera systems are disclosed. In an exemplary implementation, a method may comprise publishing a plurality of event notifications identifying available frame data. The method may also comprise subscribing a program code module to at least one of the event notifications. The method may also comprise executing a process at the program code module corresponding to the subscribed event notification after the subscribed event notification is published.

Abstract: In an image processing apparatus which can always provide an excellent processed image, an analysis unit analyzes condition information representing a condition at a time when an image is obtained and being included in image information, and determines an algorithm of an image correction process for the image based on the analyzed result.

Abstract: An imaging device and method for operating the device. The imaging device comprises a pixel array having a plurality of pixels arranged in rows and columns. At least one pixel of the array comprises a photosensor and a first reset circuit responsive to a first reset control signal for resetting the photosensor. A first terminal of the first reset circuit is coupled to the photosensor and a second terminal of the first reset circuit is configured to receive a first resetting voltage from a control line.

Abstract: The invention provides a system for isolating digital data representative of portions of a field of view. The system, which may be provided in the form of a digital camera, includes an array of sensor cells adapted to provide digital representations corresponding to at least a portion of the field of view, and a selector adapted to isolate a non-uniformly distributed subset of the digital representations provided by the array. The isolation may be performed based upon a set of values programmed in a programmable lookup table. A buffer is provided for holding the isolated digital representations.

Abstract: An imaging apparatus with an automatic adjustment function, such as a white balance adjustment function, enables a result of such adjustment to be checked easily using a vector display. A waveform generation unit 3 generates a vector signal from a video signal in response to an operation to push a switch unit 6 for automatic adjustment of white balance etc., and outputs the vector signal for a predetermined period. A synthesized signal generation unit 4 combines (superimposes) the video signal with (on) the vector signal and displays the synthesized signal on a display unit 5. A vector display superimposed on a video is performed on the display unit 5 for the predetermined period after the switch is pushed. This enables an adjustment result of white balance etc. to be checked easily without requiring other operations. The vector display is stopped automatically after the predetermined period, and thus does not disturb an imaging operation.

Abstract: A system and method for zooming an image. In the illustrative embodiment, the system includes a memory for receiving first and second frames of image data; a motion detector for detecting motion in said first or said second frame of image data; and an intelligent zoom system for zooming said first or said second image using a first or a second zoom method based on a detection of motion by said motion detector on a pixel by pixel basis. In the illustrative embodiment, the invention is scene-based, it works on a pixel by pixel basis to determine if a pixel is in motion. It performs motion related zoom for pixels that are affected by motion and conducts cross-field zoom for steady pixels to reduce motion artifacts in zoom mode. Motion may be determined by comparing frame-to-frame pixel value variations to fixed motion threshold(s) or by other algorithms. Independent-field zoom refers to using information from one input field to form a zoomed picture in one associated output field.

Abstract: An imaging apparatus and an imaging method supply an optimum amount of image data to another apparatus. When a PDA has a maximum transfer rate of 1.5 Mbps, a mobile phone determines that the maximum speed of communication with the PDA is low, reduces the amount of moving image data captured by a CCD of the mobile phone accordingly, and supplies the captured moving image data to the PDA. The PDA therefore displays a low-quality moving image on its display unit. When the PDA has a maximum transfer rate of 480 Mbps, the CPU of the mobile phone leaves unchanged the amount of moving picture data captured by the CCD and supplies the captured moving image data to the PDA. The PDA then displays a high-quality moving image on its display unit. The foregoing may be advantageously applied to digital cameras.

Abstract: An image capturing apparatus having a shutter for making an image capturing element enter a light-shielded state or a light-unshielded state comprises an image capturing condition storing unit for storing a plurality of image capturing conditions, a dark-time image data storing unit for storing a plurality of pieces of dark-time image data captured with the image capturing element under the image capturing conditions in the light-shielded state, a bright-time image data storing unit for storing bright-time image data captured with the image capturing element in the light-unshielded state, a dark-time image data extracting unit for extracting a dark-time image captured under an image capturing condition corresponding to an image capturing condition under which the bright-time image is captured, and a correcting unit for correcting the bright-time image data based on the dark-time image data extracted by the dark-time image data extracting unit.

Abstract: The present invention provides a visible and infrared light image-taking optical system which can facilitate changing a wavelength of infrared light used to take an infrared video image with an infrared light camera and which can achieve an infrared video image not affected by infrared light of any wavelength other than a desired wavelength, by separating object light incident on an image-taking optical system into object light in a visible light region and object light in an infrared light region and taking an object image formed by each object light for each object light in each wavelength region decomposed by the color separation optical system.

Abstract: One end of a flexible substrate is connected to a solid-state image sensing device and the other end constitutes an external connection part in which external lead-out electrodes are provided. A plurality of electronic components are mounted on a mounting part of the flexible substrate. The flexible substrate is bent at a first bent part thereof to make an acute angle with the solid-state image sensing device and also bent at a second bent part thereof to make an acute angle with the external connection part. The two acute angles are alternate angles and the solid-state image sensing device has a cross section of the letter Z.

Abstract: A user captures a digital image, which is then selected for post-processing within the image capture device. The image capture device decompresses the full size image, and buffers any metadata associated with the image. As a user applies each post-processing effect to the image, effect parameters are added to the metadata for the image. Upon completion of post-processing the effect parameters from the metadata are stored in a separate custom effect file. The image capture device then is able to perform the series of effects upon subsequent images after reading the effect parameters from the custom effect file.

Abstract: A pixel cell with increased dynamic range is formed by providing a floating diffusion region having a variable capacitance, controlled by at least one gate having source and drain regions commonly connected to the floating diffusion region. The gate has an intrinsic capacitance which, when the gate is activated, is added to the capacitance of the floating diffusion region, providing a low conversion gain readout. When the gate is off, the floating diffusion region capacitance is minimized, providing a high conversion gain readout. The gate may also be selectively switched to mid-level. At mid-level, a mid-level conversion gain, which is between the high and low conversion gains, readout is provided, but the gate still provides some capacitance to prevent the floating diffusion region from saturating.