Abstract: An imaging device includes an imaging element that takes an image of a target object and output an image signal corresponding to the image; a storage unit that stores therein a zero-point adjustment reference value; a brightness detecting unit that detects a brightness of the target object; and a reference-value changing unit that changes the zero-point adjustment reference value when the brightness detected by the brightness detecting unit is equal to or lower than a threshold. A zero point in a level of the image signal output from the imaging element is adjusted by using the zero-point adjustment reference value stored in the storage unit.

Abstract: An image pickup apparatus which can reduce the time required for automatic focus scanning. The size of the face is determined based on information on a subject's face, which is detected from image data acquired by shooting by an image pickup device. The subject distance is estimated based on the determined size of the face. The depth of field is calculated. A range over which the focus lens is driven varies according to the estimated subject distance and the calculated depth of field.

Abstract: The present invention determines the dimensions and volume of an object by using a novel 3-D camera that measures the distance to every reflective point in its field of view with a single pulse of light. The distance is computed by the time of flight of the pulse to each camera pixel. The accuracy of the measurement is augmented by capture of the laser pulse shape in each camera pixel. The camera can be used on an assembly line to develop quality control data for manufactured objects or on a moving or stationary system that weighs as well as dimensions the objects. The device can also ascertain the minimum size of a box required to enclose an object.

Abstract: A solid-state imaging device includes: a plurality of pixels arrayed in the vertical transfer direction and in the horizontal transfer direction; a vertical CCD shift register disposed between two pixels adjacent in the horizontal transfer direction of the plurality of pixels; a first channel stop portion used for separation between pixels, formed between the two pixels adjacent in the horizontal transfer direction, and pixels adjacent to the two pixels adjacent in the horizontal transfer direction, in the horizontal transfer direction; and a readout gate portion and a second channel stop portion, formed in a direction parallel to the vertical transfer direction between the pixels and the vertical CCD shift register, with the two pixels adjacent in the horizontal transfer direction sharing the vertical CCD shift register, and with an insulating layer which is thicker than the gate insulating layer of the vertical CCD shift register being formed above the first channel stop portion.

Abstract: An image processing apparatus includes the following elements: a generator operable to generate, on the basis of a captured image, an image to be captured with a second setting different from a first setting serving as a present shooting setting; a display controller operable to display, together with the captured image, the image generated by the generator; and a controller operable to control, when the image generated by the generator is selected from among the images displayed by the display controller, the setting so that an image can be captured with the second setting.

Abstract: It is an object to reduce subjective noise. Provided is an image-signal processing device including an area dividing unit that divides image signals acquired by an image capturing element and subjected to predetermined image processing into a plurality of areas on the basis of color information and a noise reducing unit that performs different noise reduction processing on the individual areas of the image signals divided by the area dividing unit.

Abstract: A camera module package is disclosed. The camera module package is capable of preventing defects caused by foreign bodies and enhancing product reliability by reducing the time consumed in a packaging process for manufacturing a camera module, and of reducing the size of a package and manufacturing costs by excluding the use of gold wires.

Abstract: A method for optimizing a digital image acquired by a camera, according to the preference of the user of the camera, comprises determining the user's preferences based on user behavior in respect of one or more previously acquired images and thereafter changing one or more shooting parameter of the camera based on said behavior.

Abstract: An image-pickup apparatus is disclosed which is capable of realizing a focus-effect function in a constant time without being influenced by contrast of an object or the position of a focus lens. The apparatus includes a signal generator which generates a focus evaluation signal, a detector which detects information corresponding to an object distance, and a controller which performs focus lens control on the basis of the focus evaluation signal and focus lens control on the basis of information corresponding to the object distance. The controller determines a direction and a velocity in which the focus lens is moved toward an in-focus position on the basis of the information corresponding to the object distance in the focus lens control according to the focus-effect function. The controller performs the focus lens control on the basis of the focus evaluation signal after the focus lens is moved in the determined direction.

Abstract: Methods and systems for adjusting a video imaging system that includes an auto-focus mechanism wherein an input from a user of the video imaging system invokes an auto-focus procedure. Responsive to the input, the auto-focus mechanism is scanned over a range of focal distance from a first setting to a second setting indicated by the input. A sequence of images using the video imaging system is captured while scanning the auto-focus mechanism over the range. The images in the sequence are processed so as to compute a measure of focal quality with respect to each of the images. The measure of the focal quality is analyzed so as to select an optimal focal distance, and the auto-focus mechanism is set to the selected focal distance.

Abstract: An imaging apparatus includes: determination means for determining whether a capture image is a frontlit image or a backlit image; detecting means for detecting a flesh-color area in the capture image; calculation means for setting weights, in a luminance histogram on the flesh-color area, on luminance of pixels included in a high-luminance area having a relatively high luminance value and luminance of pixels included in a low-luminance area having a relatively low luminance value in accordance with the determination result, and calculating modified luminance produced by modifying luminance on the flesh-color area on the basis of the weights; and correcting means for correcting brightness of the capture image on the basis of the modified luminance.

Abstract: An image sensing apparatus includes an image sensor provided with a plurality of pixels each having a photoelectric converter that receives light from an object and converts the received light to a signal, a semiconductor region to which the signal from the photoelectric converter is transferred, a transfer unit that transfers the signal of the photoelectric converter to the semiconductor region, and a readout unit that reads out a signal from the semiconductor region, and a correction unit that corrects a first signal read out from the photoelectric converter, based on a second signal obtained by reading out the signal accumulated in the semiconductor region.

Abstract: Provided is an image capturing apparatus, including: an optical system causing a light receiving section to receive, in substantially the same spread, light from positions within a predetermined range of positional relation, and has different optical transfer functions for light from different positions lying within the predetermined range; a storage storing each process parameter for correcting the effect of an optical transfer function on the captured image, in association with a condition regarding a positional relation between a subject and the optical system to be satisfied in performing correction using the process parameter; an obtaining section obtaining positional information indicating a positional relation between a subject and the optical system; and a selecting section selecting a process parameter stored in the process parameter storage in association with a condition that the positional relation indicated by the positional information obtained by the positional information obtaining section sat

Abstract: A color filter allows a light signal to pass through by each pixel and be incident on an imaging device. The light signal is inputted through a lens and including one of plural different spectral components. The plural different spectral components include a first spectral component which has a widest frequency bandwidth among the plural different spectral components, a second spectral component corresponding to a predetermined frequency band close to a frequency that causes no chromatic aberration of the lens, and a third spectral component expressed in terms of a linear sum of a value resulting from multiplying the first spectral component by a first weighting factor and a value resulting from multiplying the second spectral component by a second weighting factor.

Abstract: A method for image capture includes providing an image sensor having at least one segmented row of pixels, wherein the at least one segmented row comprises at least first and second disjoint row subsets of pixels, wherein the reset and readout operations for each row subset are controllably independent of each other; timing the exposure interval of the first subset to be photographically centered with the exposure interval of the second subset; and combining the image data obtained from the first and second row subset exposures to form a row of pixel values.

Abstract: A method and apparatus providing a CMOS imager with an integrated controller on a common integrated circuit substrate. Also integrated on the common substrate are, a serializer circuit including a dynamic arbiter under the control of the microcontroller core and a set of extended special function registers through which data is passed to allow the microcontroller to control the CMOS imager and the serializer circuit.

Abstract: A digital still camera has a cylindrical image pick up portion with a lens, a strobe unit, and a display. The image pick up unit is cylindrical and is rotatably held at each end, so that the lens and strobe unit move in concert. The image pick up unit can be rotated to face the rear of the camera, where the display is located, so that the user can do self-images.

Abstract: An RGB-Z sensor is implementable on a single IC chip. A beam splitter such as a hot mirror receives and separates incoming first and second spectral band optical energy from a target object into preferably RGB image components and preferably NIR Z components. The RGB image and Z components are detected by respective RGB and NIR pixel detector array regions, which output respective image data and Z data. The pixel size and array resolutions of these regions need not be equal, and both array regions may be formed on a common IC chip. A display using the image data can be augmented with Z data to help recognize a target object. The resultant structure combines optical efficiency of beam splitting with the simplicity of a single IC chip implementation. A method of using the single chip red, green, blue, distance (RGB-Z) sensor is also disclosed.

Abstract: RGB-Z imaging systems acquire RGB data typically with a high X-Y resolution RGB pixel array, and acquire Z-depth data with an array of physically larger Z pixels having additive signal properties. In each acquired frame, RGB pixels are mapped to a corresponding Z pixel. Z image resolution is enhanced by identifying Z discontinuities and identifying corresponding RGB pixels where the Z discontinuities occur. Thus segmented data enables RGB background substitution, which preferably blends foreground pixel color and substitute background color. The segmented data also enables up-sampling in which a higher XY resolution Z image with accurate Z values is obtained. Up-sampling uses an equation set enabling assignment of accurate Z values to RGB pixels. Fixed acquisition frame rates are enabled by carefully culling bad Z data. Segmenting and up-sampling enhanced video effects and enable low cost, low Z resolution arrays to function comparably to higher quality, higher resolution Z arrays.

Abstract: An imaging system substantially simultaneously acquires z-depth and brightness data from first sensors, and acquires higher resolution RGB data from second sensors, and fuses data from the first and second sensors to model an RGBZ image whose resolution can be as high as resolution of the second sensors. Time correlation of captured data from first and second sensors is associated with captured image data, which permits arbitrary mapping between the two data sources, ranging from 1:many to many:1. Preferably pixels from each set of sensors that image the same target point are mapped. Many z-depth sensor settings may be used to create a static environmental model. Non-correlative and correlative filtering is carried out, and up-sampling to increase z-resolution occurs, from which a three-dimensional model is constructed using registration and calibration data.