Abstract: An internal-reflective telecentric lens system includes a first lens assembly, a reflector, and a second lens assembly. The first lens assembly includes a first lens. The second lens assembly includes a second lens, a third lens, and a fourth lens, that are disposed in sequence along a light path. The first lens assembly is configured to receive and output one or more light beams towards the reflector. The reflector is configured to reflect the light beams towards the second lens assembly. The second lens assembly is configured to receive and converge the light beams reflected by the reflector at a diaphragm between the second lens and the third lens, and transmit the light beams past the diaphragm through the third and the fourth lenses for imaging.

Abstract: Some embodiments include methods and/or systems for using multiple cameras to provide optical zoom to a user. Some embodiments include a first camera unit of a multifunction device capturing a first image of a first visual field. A second camera unit of the multifunction device simultaneously captures a second image of a second visual field. In some embodiments, the first camera unit includes a first optical package with a first focal length. In some embodiments, the second camera unit includes a second optical package with a second focal length. In some embodiments, the first focal length is different from the second focal length, and the first visual field is a subset of the second visual field. In some embodiments, the first image and the second image are preserved to a storage medium as separate data structures.

Abstract: An imaging apparatus comprises a first light source configured to project a first illumination onto a vehicle occupant and a second light source configured to project a second illumination onto the vehicle occupant. The system further comprises an imager comprising a pixel array. A lens apparatus comprises a first lens comprising a first field of view and a second lens comprising a second field of view. At least one shutter is selectively controlled to transmit the first illumination from the first lens to the pixel array. The at least one shutter is further controlled to selectively transmit the second illumination from the second lens to the pixel array. The imager is configured to process the first illumination in the first field of view and the second illumination in the second field of view.

Abstract: Preferable optical performance is ensured to improve image quality. The present technology includes: a housing having a mount part to which at least a first accessory and a second accessory are selectively attached; and an imaging element that photoelectrically converts captured light into an electrical signal, in which the mount part is formed with a first mount surface to which the first accessory is attached, and a second mount surface to which the second accessory is attached, and the first mount surface and the second mount surface are located on the same plane. Therefore, since the first accessory and the second accessory are selectively attached to the first mount surface and the second mount surface, which are located on the same plane, it is possible to ensure preferable optical performance and improve image quality.

Abstract: A vehicular vision system includes a camera and a plurality of infrared light emitters disposed at a vehicle, and an electronic control unit having an image processor. The camera captures frames of image data at a first rate, and infrared light emitters of the plurality of infrared light emitters are pulsed at a second rate. The plurality of infrared light emitters is operable in (i) a first mode, where infrared light emitters of the plurality of infrared light emitters are operated to emit infrared light to illuminate a region within a field of view of the camera, and (ii) a second mode, where a reduced number of infrared light emitters of the plurality of infrared light emitters are operated to emit infrared light to illuminate the region.

Abstract: A compound-eye capturing apparatus provided with a plurality of imaging devices captures a plurality of items of image data with the same image quality. First pixels for generating first pixel signals are arranged in a first pixel array part. Second pixels for generating second pixel signals are arranged in a second pixel array part. A first setting part sets an exposure time and a first gain for the first pixel signals on the basis of an appropriate exposure value. A second setting part adjusts the first gain on the basis of a difference in sensitivity between a first monocular camera module provided with the first pixel array part and a second monocular camera module provided with the second pixel array part, and sets the adjusted first gain as a second gain for the second pixel signals. A control part causes the first and second pixel array parts to be exposed over the exposure time. An amplification part amplifies the output first and second pixel signals by the first and second gains.

Abstract: An image capturing apparatus comprises: a reception unit configured to receive information of a zoom position of the lens unit; a setting unit configured to set a predetermined range on the basis of information of a first zoom position; a control unit configured to, when the control unit detects that the zoom position of the lens unit has been changed from the first zoom position to a second zoom position, cause driving of the focus lens to stop, and, when the control unit detects that the zoom position of the lens unit has changed from the second zoom position to within the predetermined range on a telephoto side, resuming driving of the focus lens, wherein the predetermined range is set to include the first zoom position on the telephoto side from the second zoom position.

Abstract: An electronic device includes an input interface, a wide-angle sensor, a telephoto sensor, and an output interface. The input interface receives a zoom magnification. The wide-angle sensor operates when the zoom magnification is smaller than a first reference magnification. The telephoto sensor operates when the zoom magnification is greater than a second reference magnification, which is smaller than the first reference magnification. The telephoto sensor operates concurrently with the wide-angle sensor when the zoom magnification is between the second reference magnification and the first reference magnification. The output interface outputs a first image based on a first signal from the wide-angle sensor when the zoom magnification is smaller than a switching magnification, which is between the second reference magnification and the first reference magnification.

Abstract: An attachment for a mobile device includes an attachment feature securable to the mobile device. The attachment also includes a first set of imaging optics that receives, from within a first field of view, first light defining a first portion of image data captured by an image sensing system of the mobile device. The first portion of the image data includes a barcode image. The first field of view is centered on a first optical pathway. The attachment also includes a second set of imaging optics that receives, from within a second field of view, second light defining a second portion of the image data. The second portion of the image data includes a non-barcode image. The second field of view is centered on a second optical pathway nonparallel to the first optical pathway.

Abstract: The present disclosure provides an electronic apparatus including a housing, a mainboard provided within the housing, and a first display screen connected to the mainboard. The housing includes a front side face, a rear side face, a left side face and a right side face, and a top face. The first display screen is provided on the front side face of the housing. A storage groove is defined on the top face of the housing. The electronic apparatus further includes a mounting frame having a rotating box rotatably connected to the mounting frame. The rotating box is provided with a camera connected to the mainboard. The mounting frame can protrude out of or retract into the storage groove thereby to drive the rotating box to move out of or into the storage groove, such that the camera is exposed of or hidden into the housing.

Abstract: The imaging device comprises a movable image sensor; a circuit board connected to the image sensor; an optical module comprising a lens group on an optical axis, the optical module being movable along the optical axis between at least a retracted position and an extended position. The device also includes an activating actuator configured to move the movable image sensor and the circuit board in a plane between an active position and an inactive position. In the active position the image sensor is stacked under the optical module on the optical axis, and the optical module is in an extended position. In the inactive position the image sensor is positioned off the optical axis and away from the optical module, and the optical module is in a retracted position.

Abstract: There is provided an optical imaging system including a prism, a first fixed lens group, a first movable lens group, a second movable lens group, and a second fixed lens group. The prism is configured to refract light reflected from an object side toward an imaging plane and a reflecting member. The prism is disposed on the first fixed lens group and the first movable lens group is configured to change a position of the imaging plane so that an overall focal length is changed. The second movable lens group is configured to adjust a position of the imaging plane so that a focal length for an object is adjusted. The imaging plane is disposed on the second fixed lens group.

Abstract: Technologies for managing access to image data streams generated by a plurality of image sensors of an image sensor array include a camera driver module. The camera driver module limits exposure to a user to all but one of the image sensors of the image sensor array. In some embodiments, the image sensor array may include a single primary image sensor that is exposed to the user and one or more secondary sensors that are not exposed to the user. In other embodiments, the image sensor array may include more than one primary image sensor and any number of secondary image sensors. In such an embodiment, only one of the primary image sensors are exposed to the user, and none of the secondary image sensors, if available, are exposed to the user. Other embodiments are described herein and claimed.

Abstract: A camera for polarimetric, multispectral imaging is described. Such cameras are used in photonics, computational imaging and multispectral imaging in which both multispectral and polarimetric sensing modalities are used simultaneously for detection, recognition and identification. The camera enables multiple spectral images to be recorded simultaneously using polarizing beamsplitters and mirrors to divide the image according polarimetric and spectral bands. These multiple, polarized images are recorded on a single focal plane array (FPA) simultaneously. An image processor allows for the resolution of the subsequent image to be improved.

Abstract: Compact folded camera modules having auto-focus (AF) and optical image stabilization (OIS) capabilities and multi-aperture cameras including such modules. In an embodiment, a folded camera module includes an optical path folding element (OPFE) for folding light from a first optical path with a first optical axis to a second optical path with a second optical axis perpendicular to the first optical axis, an image sensor and a lens module carrying a lens with a symmetry axis parallel to the second optical axis. The lens module can be actuated to move in first and second orthogonal directions in a plane perpendicular to the first optical axis, the movement in the first direction being for auto-focus and the movement in the second direction being for OIS. The OPFE can be actuated to tilt for OIS.

Abstract: An image capturing apparatus comprises: a first image sensor configured to photo-electrically convert a subject image and output an image signal; a first image processing unit configured to develop a first image signal generated by the first image sensor; a second image processing unit configured to reduce a number of pixels in the first image signal and develop the image signal whose pixels have been reduced as a second image signal; a recording unit configured to record an image signal; and a display unit having a lower pixel count than the pixel count of the first image sensor, wherein in the case where an instruction to capture a still image has been made, the recording unit records the image signal developed by the first image processing unit and the display unit displays the image signal developed by the second image processing unit.

Abstract: The purpose of the present invention is to reduce the size of an image pick-up lens unit. A part of a bundle of rays representing subject optical images is deflected vertically downward by a polarization prism, and is further deflected forwards by a total reflection mirror. A bundle of rays totally reflected by the total reflection mirror is split in three directions by a tri-directional splitting prism. The bundle of rays, which is split in three directions, is incident on a first optical-path-length-difference image pick-up element, a second optical-path-length-difference image pick-up element, and a phase-difference image pick-up element included in a phase-difference AF optical system. Auto focus (AF) is performed on the basis of the optical path length difference from signals obtained from the optical-path-length-difference image pick-up elements, and AF is performed on the basis of the phase difference from a signal obtained from the phase-difference image pick-up element.

Abstract: An optical apparatus is provided that includes a reflective component that reflects light from an optical axis to an optical plane substantially perpendicular to the optical axis. The apparatus further includes first and second lens units disposed within the optical plane, and an actuator mechanically coupled with the first and second lens units to cause concurrent first and second displacements, respectively. Light transmitted through the first and second lens units prior to the first and second displacements is imaged with a first magnification at a respective focal plane and light transmitted through the first and second lens units after the first and second displacements is image with a second magnification different from the first magnification at the respective focal plane, thereby effecting an optical zoom effect.

Abstract: A photographing apparatus includes: a lens unit; a light transmission adjustment unit that adjusts light transmittance of light that passes through the lens unit; a photographing unit that is disposed a reflected light path of the light transmission adjustment unit and that generates an image data according to received light, and a view finder that is disposed on a transmitted light path of the light transmission unit.

Abstract: Switching device (1) for the alternating connection of at least one television camera (2) to one of at least two television camera control units (3) or for the alternating connection of at least one television camera control unit (3) to one of at least two television cameras (2); with the switching device (1) having connectors (4, 5) for the television camera(s) (2) and the television camera control unit(s) (3); and each connector (4, 5) having electrical supply contacts (6, 7) for the power and voltage supply of the television camera (2) through the television camera control unit (3); and having at least one optical contact (8, 9) for the transmission of information over fiberoptic cables between the television camera (2) and the television camera control unit (3); and with the switching device (1) having at least one power supply line switch (10) and at least one optical switch (11) and at least one switching control unit (12) to actuate the power supply line switch (10) and to actuate the optical switch (1

Abstract: A rotating mirror digital streak camera including means to convert an image presented to a roughly cylindrical image plane into a plurality of discrete zones, a sensor being adapted to capture the image data associated with each such zone, and a means to assemble the collected data to reconstruct the original image that is swept across the image plane as an essentially uninterrupted image.

Abstract: In the image capturing apparatus, the optical path difference producing member is disposed on the second optical path. Thereby, it is possible to suppress the amount of light when an optical image which is focused at the front of an optical image made incident into the first imaging device (front focus) and an optical image which is focused at the rear thereof (rear focus) are respectively imaged at the second imaging device and also to secure the amount of light on image pickup by the first imaging device. Further, in the image capturing apparatus, a position of the first imaging region and a position of the second imaging region on the imaging area are reversed with respect to the axis P in association with reversal of a scanning direction of the sample. Therefore, despite the scanning direction of the sample, it is possible to obtain a deviation direction of the focus position under the same conditions.

Abstract: An image-pickup apparatus is operable in a first mirror driving mode where a motor rotates a mirror cam member in a first direction so as to move a mirror at a first speed and is operable in a second mirror driving mode where the motor rotates the mirror cam member in as second direction so as to move the mirror at a second speed slower than the first speed. When start of taking an image is instructed, a light emitting member starts a pre-flush operation before the mirror cam member starts to rotate in a case where the image-pickup apparatus operates in the first mirror driving mode, and the light emitting member starts the pre-flash operation after the mirror cam member starts to rotate in a case where the image-pickup apparatus operates in the second mirror driving mode.

Abstract: A compressive imaging system for optimizing dynamic range during the acquisition of compressed images. A light modulator modulates incident light with spatial patterns to produced modulated light. A light sensing device generates an electrical signal representing intensity of the modulated light over time. The system amplifies a difference between the electrical signal and an adjustable baseline voltage and captures samples of the amplified signal. The adjustable baseline voltage is set to be approximately equal to the average value of the electrical signal. A compressive imaging system for identifying and correcting hot spot(s) in the incident light field. Search patterns are sent to the light modulator and the corresponding samples of the electrical signal are analyzed. Once the hot spot is located, the light modulating elements corresponding to the hot spot may be turned off or their duty cycle may be reduced.

Abstract: In an electronic device, an image point A on an image of an object is selected. A spectral confocal sensor is controlled to move to a position above a measuring point A? on the object, where the measuring point A? corresponds to the image point A, and a Z-coordinate of the measuring point A? is computed using the spectral confocal sensor. A focal position of the measuring point A? is computed according to the Z-coordinate of the measuring point A?, and a CCD lens is controlled to move to the focal position. The Z-coordinate of the measuring point A? is stored into a storage unit of the electronic device.

Abstract: A new digital image/video camera that directly acquires random projections of the incident light field without first collecting the pixels/voxels. In one preferred embodiment, the camera employs a digital micromirror array to perform optical calculations of linear projections of an image onto pseudorandom binary patterns. Its hallmarks include the ability to obtain an image with only a single detection element while measuring the image/video fewer times than the number of pixels or voxels—this can significantly reduce the computation required for image/video acquisition/encoding. Since the system features a single photon detector, it can also be adapted to image at wavelengths that are currently impossible with conventional CCD and CMOS imagers.

Abstract: A method for capturing an image, comprising: providing a switchable imaging apparatus including a display screen having a first display state and a second transparent state, an optical beam deflector switchable between a first non-deflecting state and a second deflecting state, a camera positioned in a location peripheral to the display screen, and a controller; setting the switchable imaging apparatus to the image capture mode by using the controller to set the display screen to the second transparent state and the optical beam deflector to the second deflecting state; using the camera to capture an image of the scene; setting the switchable imaging apparatus to the image display mode by using the controller to set the display screen to the first display state and the optical beam deflector to the first non-deflecting state; and displaying an image on the display screen.

Abstract: A sighting system is disclosed, comprising a housing with small upper minor mounted in its upper center, redirecting light from a single objective lens set, and a larger lower mirror mounted coaxially relative to the lens set and upper minor, both mirrors set at 45° and redirecting light at 90° angles to the lens set. The smaller mirror is positioned closer than the lower minor to the lens set. A night camera system is used for receiving an image through the lens set redirected by the lower mirror and amplified through an intensifier before transmission to a video display monitor(s). A day camera system receiving the image from the lens set redirected by the smaller minor transmits the image to the monitor(s) for separate display of the image, enabling simultaneous capture of the optimum amount of light by each camera, maximizing the housing's diametrical space to receive incoming light.

Abstract: An auto-focus camera (100) can include a lens (102), a sensor (108) for detecting an image from the lens, a first liquid crystal layer (104) between the lens and the sensor, and a second liquid crystal layer (106) between the lens and the sensor and further orthogonally aligned to the first liquid crystal layer. The auto-focus camera can further include an integrated circuit programmed to drive the first liquid crystal layer and the second liquid crystal layer. The auto-focus camera can include a controller (202) programmed to control two orthogonally aligned liquid crystal layers. The liquid crystal layers can serve as an optical anti-alias filter using birefringence properties of the liquid crystal layers. The first liquid crystal layer and the second liquid crystal layer can be orthogonally aligned to achieve polarization insensitive operation of the auto-focus camera.

Abstract: This document describes various apparatuses and techniques for rapid synchronized lighting and shuttering. These apparatuses and techniques are capable of capturing two images, where one of the images integrates multiple exposures during which an image area is illuminated by a light source and another of the images integrates multiple exposures during which the image is not illuminated by the light source. The image area can be illuminated by rapidly flashing the image area with the light source and synchronizing a shutter to permit one image sensor to capture an image when the image area is illuminated and another image sensor to capture the image area when the image area is not illuminated. These two images can be captured concurrently or nearly concurrently, thereby reducing or eliminating motion artifacts. Further, these apparatuses and techniques may do so with slow and relatively low-cost cameras and relatively low computational costs.

Abstract: A camera (1), in particular in a space vehicle, having a housing (2) which contains at least one optically sensitive exposure surface (7), and a base lens (9), having a first fixed focal length, connected thereto in each case, and which projects on the at least one exposure surface (7) and which is situated on a first optical axis (10) for the exposure surface (7). To provide the camera with various fields of view, in particular for the approach of two satellites toward one another over large distances, at least two afocal supplementary lenses (11, 12) which are each parallel with respect to their optical axes (15, 16) and spaced at a distance from the first optical axis (10) are situated in the housing (2), whose optical paths are alternately coupleable with the aid of a pivotable prism (17), to form further fixed focal lengths in an optical path of the base lens (9).

Abstract: An image capture apparatus includes a variable translucency mirror, a viewfinder unit configured to receive light reflected by the variable translucency mirror, an imaging sensor configured to receive light transmitted through the variable translucency mirror, an image display unit configured to display an image based on the light received by the imaging sensor, and a controller configured to set a translucency of the variable translucency mirror. In a viewfinder mode, the controller sets the variable translucency mirror to be at least partially reflective such that light incident on the variable translucency mirror is reflected thereby and received by the viewfinder unit. In a display view mode, the controller sets the variable translucency mirror to be at least partially transparent, such that light incident on the variable translucency mirror is transmitted therethrough and received by the imaging sensor.

Abstract: An imaging system and method that captures compressive sensing (CS) measurements of a received light stream, and also obtains samples of background light level (BGLL). The BGLL samples may be used to compensate the CS measurements for variations in the BGLL. The system includes: a light modulator to spatially modulate the received light stream with spatial patterns, and a lens to concentrate the modulated light stream onto a light detector. The samples of BGLL may be obtained in various ways: (a) injecting calibration patterns among the spatial patterns; (b) measuring complementary light reflected by digital micromirrors onto a secondary output path; (c) separating and measuring a portion of light from the optical input path; (d) low-pass filtering the CS measurements; and (e) employing a light power meter with its own separate input path. Also, the CS measurements may be high-pass filtered to attenuate background light variation.

Abstract: A method for a compressive sampling to capture an image of the object by using a spatial light modulator and a photo-detector, the method includes driving the spatial light modulator in a first rough sampling mode which is executed by using first coded patterns; detecting signals from the photo-detector to obtain a first data at t=t1; detecting signals from the photo-detector to obtain a second data at t=t2, where t2>t1; and changing the first rough sampling mode to a second rough sampling mode which is executed by using second coded patterns finer than the first coded patterns when a difference between the first data and the second data is greater than a threshold value.

Abstract: A switchable imaging apparatus having an image display mode and an image capture mode, comprising: a display screen to provide a displayed image when the display screen is in a first display state, wherein the display screen is at least partially transparent when the display screen is switched to a second transparent state; a set of optical beam deflectors, each optical beam deflector being individually switchable between a first non-deflecting state and a second deflecting state wherein imaging light from a corresponding section of the scene is deflected into a camera positioned in a location peripheral to the display screen; and a controller which synchronously switches the display screen between the first display state and the second transparent state, and the individual optical beam deflectors between their first non-deflecting state and their second deflecting state, thereby providing the image display mode and the image capture mode.

Abstract: A switchable imaging apparatus having a transparent viewing mode and an image capture mode, comprising: a transparent plate having a front surface, wherein a scene is viewable through the transparent plate when the imaging apparatus is in the transparent viewing mode; an optical beam deflector positioned within the transparent plate, wherein the optical beam deflector is switchable between a first non-deflecting state and a second deflecting state, such that when the optical beam deflector is in the second deflecting state imaging light from the scene is deflected into a camera positioned in a location peripheral to the transparent plate; and a controller which synchronously switches the optical beam deflector between the first non-deflecting state and the second deflecting state, thereby providing the transparent viewing mode and the image capture mode.

Abstract: An encoding apparatus of a video security system in which a stream to be stored in a storage medium and a stream to be transmitted through a network may be simultaneously or separately generated using one encoding chip. The encoding apparatus includes an image encoding unit which encodes an input image, received from a surveillance camera, selectively under at least one of an advanced video coding (AVC) scheme complying with an H.264/AVC standard to generate and store an AVC-encoded image in a storage medium, and a scalable video coding (SVC) scheme complying with the H.264/AVC standard to generate and transmit an SVC-encoded image to a network.

Abstract: An imaging system or camera having an array of elements switchable between two states for measuring of light received by the imaging system on a pixel by pixel basis to form two separate images simultaneously over a common integration time in which switching takes place faster than the integration time of the camera. Optical switching may be provided by a spatial light modulator along one of two paths each associated with a detector for one of the images, or each path being associated with one of two non-overlapping regions of the same detector, where each region provides one of the images. Electronic switching may be provided in which for each pixel a photodetector provide an electrical signal onto a switching element which switches the signal onto one of two sites for integrating the signal and providing a pixel value, where the two sites are each associated with a different one of the images.

Abstract: A display unit for binocular representation of a multicolor image including a control unit triggering an imaging element such that the imaging element generates in a temporal successive manner the image to be displayed for a first beam path and a second beam path as a first image and second image, respectively. The images are generated in a pre-distorted manner, opposite of the chromatic aberration of the respective beam path, such that the chromatic aberration generated in the respective beam path is compensated when the first and second image is displayed. The display unit includes a switching module which operates in temporal synchrony with the first and second image being generated, such that a user can see the first image only via the first beam path and the second image only via the second beam path.

Abstract: A system (100) for the adaptive imaging of a scene includes a digital light processing apparatus (150) adapted for controllably reflecting an image of the scene in at least a first direction to thereby reflect an intensity modulated image of the scene along at least the first direction, an image detector (140) for detecting the intensity modulated image of the scene and generating corresponding image data, and an image data processor (154) for processing the image data into control data and providing the control data to the digital light processing (150) apparatus for control thereof.

Abstract: An optical device having a total internal reflection (TIR) switch is able to switch to form two different optical imaging paths. Each optical imaging path has different optical characteristics that causes a detector to capture different imagery depending upon which optical imaging path is used. The TIR switch is switchable between a TIR state and a transmission state to control which optical imaging path is used by the device for imaging.

Abstract: An electronic optical zoom system (100) includes a first lens assembly (101) and a second lens assembly (102). The first lens assembly (101) and the second lens assembly (102) may be adjacently disposed or concentrically disposed. The first lens assembly (101) and second lens assembly (102), in one embodiment, have different magnification configurations. An image sensor (103) captures electronic images of a subject (109). Optical zoom capability is achieved by an alterable electronic optical device (851), such as a switchable mirror (105). The alterable electronic optical device (851) selectively redirects received light between a first optical path (107) from a reflective surface (106) to a second optical path (117) from the alterable electronic optical device (851) depending upon the state of the alterable electronic optical device (851). The electronic optical zoom system (100) thereby provides optical zoom capabilities in a compact package without the need for physically moving lens assemblies.

Abstract: A sighting system is disclosed, comprising a housing with small upper mirror mounted in its upper center, redirecting light from a single objective lens set, and a larger lower mirror mounted coaxially relative to the lens set and upper mirror, both mirrors set at 45° and redirecting light at 90° angles to the lens set. The smaller mirror is positioned closer than the lower mirror to the lens set. A night camera system is used for receiving an image through the lens set redirected by the lower mirror and amplified through an intensifier before transmission to a video display monitor(s). A day camera system receiving the image from the lens set redirected by the smaller mirror transmits the image to the monitor(s) for separate display of the image, enabling simultaneous capture of the optimum amount of light by each camera, maximizing the housing's diametrical space to receive incoming light.

Abstract: A compressive imaging system for optimizing dynamic range during the acquisition of compressed images. A light modulator modulates incident light with spatial patterns to produced modulated light. A light sensing device generates an electrical signal representing intensity of the modulated light over time. The system amplifies a difference between the electrical signal and an adjustable baseline voltage and captures samples of the amplified signal. The adjustable baseline voltage is set to be approximately equal to the average value of the electrical signal. A compressive imaging system for identifying and correcting hot spot(s) in the incident light field. Search patterns are sent to the light modulator and the corresponding samples of the electrical signal are analyzed. Once the hot spot is located, the light modulating elements corresponding to the hot spot may be turned off or their duty cycle may be reduced.

Abstract: A switchable imaging apparatus having an image display mode and an image capture mode, comprising: a display screen to provide a displayed image when the display screen is in a first display state, wherein the display screen is at least partially transparent when the display screen is switched to a second transparent state; an optical beam deflector switchable between a first non-deflecting state and a second deflecting state, such that when the optical beam deflector is in the second deflecting state imaging light from a scene is deflected into a camera positioned in a location peripheral to the display screen; and a controller which synchronously switches the display screen between the first display state and the second transparent state, and the optical beam deflector between the first non-deflecting state and the second deflecting state, thereby providing the image display mode and the image capture mode.

Abstract: An image capture apparatus comprises an imaging optical system, an image sensor, a pupil division unit which limits a light beam entering each pixel on the image sensor to a specific pupil area of the imaging optical system, an incident angle determination unit which determines an incident angle to each pixel on the image sensor, an image shift unit which shifts an electric signal obtained from the image sensor, based on the incident angle determined by the incident angle determination unit and a position of a plane on which image generation is performed, and an image generation unit which synthesizes electric signals obtained from the image shift unit.

Abstract: A system for collecting data comprising a mobile terminal for capturing a plurality of frames of image data, the mobile terminal having a first imaging assembly and a second imaging assembly, the first imaging assembly for capturing a first frame of image data representing a first object and the second imaging assembly for capturing a second frame of image data representing a second object, wherein the system for use in collecting data is operative for associating first frame information and second frame information, the first frame information including one or more of image data of the first frame of image data and information derived utilizing the image data of the first frame of image data, the second frame information including one or more of image data of the second frame of image data and information derived utilizing the image data of the second frame of image data.

Abstract: An imaging device includes: an optical system, for focusing light from subjects; color imaging element including a plurality of types of light receiving sections that detect light of different wavelength bands, for imaging focused images of the subjects; and an image processing section, for performing filtering processes to remove blur caused by the optical system from data output by the imaging element. The pitch among specified light receiving sections that contribute most to brightness signals is set smaller than that among other light receiving sections. The point spread diameter of the optical system on the specified light receiving sections is set to be greater than the pitch among the specified light receiving sections for wavelengths detected thereby, and less than the pitches among the other light receiving sections for wavelengths detected thereby. The image processing section performs the filtering process only on data output by the specified light receiving sections.

Abstract: An optical system includes an aperture diaphragm having such a curved surface shape that an aperture part moves in an optical axis direction as an aperture diameter changes. The aperture diaphragm has a convex shape on an object side when an optical system on the object side of the aperture diaphragm has a negative refractive power, and the aperture diaphragm has a convex shape on an image side when the optical system on the object side of the aperture diaphragm has a positive refractive power.

Abstract: An image acquisition system that includes a first image recording device that records a series of images of a subject. A lateral velocity vector estimator receives the series of images from the first image recording device and estimates the lateral velocity vectors of the subject relative to the image acquisition system. The image acquisition system further includes a second image recording device that includes an orthogonal transfer CCD sensing element which records a target image of the subject. The orthogonal transfer CCD sensing element includes an array of pixels. A control adjusts the array of pixels within the orthogonal transfer CCD sensing element based on the lateral velocity vector estimates provided by the lateral velocity estimator.