Abstract: Methods and systems stabilization of a camera image for short term or ‘pole shake’ and longer term ‘pole drift’ are provided. The camera is attached to a fixed structure. The pole drift is over periods of times long enough that the imagery can change significantly between a base reference frame and the current stabilized transient frame. A multitude of mapped frames and associated information is maintained. The slowly varying camera orientation (“pole drift”) is decoupled from the rapid motion jitter (“pole shake”), and separate transformations are calculated for each. Up to three transformations may be combined together for any one input frame. The separate transformations are combined together, so that only one full-blown image transformation computation is performed for each frame. A surveillance system applies a stabilization method.

Abstract: A satellite constellation includes a plurality of satellites in respective polar orbits. The orbits are spaced evenly in longitude and the satellites of adjacent orbits are spaced evenly in latitude. On board each satellite is one or more sensors for monitoring activity within the satellite's field of view.

Abstract: An aerial photographing system, comprising a flying vehicle being remotely controlled, a camera (7, 8) tiltably supported in any direction via a gimbal (25), a retro-reflector (9) tilting integrally with the camera, being set in a known relation with the camera and used as an object to be measured, and a total station (3) for tracking the retro-reflector and for measuring position of the retro-reflector.

Abstract: A front-and-rear-facing camera device has a camera unit mounted on a selected position on a carrier. The camera unit has a front lens and a rear lens oppositely mounted on a lens-mounting base to take a front-view video stream and a rear-view video stream, and displays the front-view and rear-view video streams on two non-overlapping display areas of a display, or displays the front-view video stream on an overlapping display area of the display and the rear-view video stream on the displayed front-view video stream through an image-processing circuit and a signal transmission interface electrically connected between the front and rear lenses and the display.

Abstract: A system and method provides an image that adjusts in response to at least one vehicle mounted sensor.

Abstract: Method and apparatus for localising transportable apparatus (100) within an environment (120) includes obtaining (202) point cloud data (114) representing a 3D point cloud with appearance information of at least part of the environment. The method further obtains (204) first frame data (110) representing an image produced by a sensor (102) onboard transportable apparatus at a first time and location within the environment and second frame data (110) representing an image produced by the sensor at a second time and location within the environment. The method harmonises (206) information about the first frame data, the second frame data and an overlapping subset of the point cloud data in order to determine a location within the point cloud data where at least one of the first frame and the second frame was produced, thereby localising (208) the transportable apparatus within the environment.

Abstract: A device for assisting a driver driving a vehicle or for autonomously driving a vehicle includes several distance sensors (2, 4, 5) and camera sensors (1, 3), an evaluation unit, and a control unit. The distance sensors detect objects that are directly in front of and behind the vehicle. The camera sensors cover an area surrounding the vehicle. From the data of the distance and camera sensors, the evaluation unit determines a three-dimensional representation of the areas covered by the sensors. Taking the three dimensional representation into account, the control unit generates a piece of advice for the driver or intervenes in vehicle steering.

Abstract: A tamper resistant motion detector is provided that can include a housing, a capacitive sensor, and a microprocessor. The housing can include a window, and the capacitive sensor can be located inside of the housing, behind the window. A capacitance of the capacitive sensor can change when the capacitive sensor detects an object on the window or within a predetermined distance from the window, and the microprocessor can read the capacitance of the capacitive sensor and use the capacitance of the capacitive sensor to determine whether to activate an alarm or to determine whether to activate an anti-mask system.

Abstract: A door lock apparatus is provided, which is operated so as to ring and be heard only indoors, without ringing and being heard outdoors when movements outside a door are detected, thereby improving the function of keeping watch indoors over the outdoor movements. The door lock apparatus includes a door lock provided with a chime bell and with a camera, the door lock being installed outdoors; and a monitoring unit displaying operations of the chime bell and of the camera thereon and opening or closing a door, the monitoring unit being installed indoors, wherein the door lock is further provided with a motion sensor, and the monitoring unit is configured such that, when movements outside the door are detected by the motion sensor, the monitoring unit receives a captured image and simultaneously operates the chime bell to ring and be heard only indoors, without ringing and being heard outdoors.

Abstract: A wearable digital video camera (10) is equipped with wireless connection protocol and global navigation and location positioning system technology to provide remote image acquisition control and viewing. The Bluetooth® packet-based open wireless technology standard protocol (400) is preferred for use in providing control signals or streaming data to the digital video camera and for accessing image content stored on or streaming from the digital video camera. The GPS technology (402) is preferred for use in tracking of the location of the digital video camera as it records image information. A rotating mount (300) with a locking member (330) on the camera housing (22) allows adjustment of the pointing angle of the wearable digital video camera when it is attached to a mounting surface.

Abstract: A display system for presenting information relating to the remote monitoring and operation of machines is provided. The display includes a display screen configured to include a main section adapted to display video image data relating to a selected monitored machine. A first side section is arranged along a first edge of the display screen and adapted to display respective video image data associated with each of a plurality of monitored machines. A second side section is arranged along a second edge of the display screen and adapted to display video image data relating to a worksite.

Abstract: The system to proctor an examination includes a first camera worn by the examination taking subject and directed to capture images in subject's field of vision. A second camera is positioned to record an image of the subject's face during the examination. A microphone captures sounds within the room, which are analyzed to detect speech utterances. The computer system is programmed to store captured images from said first camera. The computer is also programmed to issue prompting events instructing the subject to look in a direction specified by the computer at event intervals not disclosed to subject in advance and to index for analysis the captured images in association with indicia corresponding to the prompting events.

Abstract: A spectrometry apparatus includes a light incident section on which incident light from an image pickup target is made incident, an image pickup section provided on an optical path of the incident light input from the light incident section, a variable wavelength interference filter configured to transmit light having a predetermined wavelength from the incident light input from the light incident section and capable of changing the wavelength of the light to be transmitted, and a filter-position switching section configured to advance and retract the variable wavelength interference filter to and from an optical path of the incident light.

Abstract: A short light pulse generation device includes: a light pulse generation portion that has a quantum well structure and generates a light pulse; a frequency chirping portion that has a quantum well structure and chirps a frequency of the light pulse; a light branching portion that branches a chirped light pulse; and a group velocity dispersion portion that has a plurality of optical waveguides, on which each of a plurality of the light pulses branched in the light branching portion is incident, and produces a group velocity difference depending on a wavelength with respect to a plurality of branched light pulses, wherein light path lengths of the light pulses in a plurality of light paths before the light pulse is branched in the light branching portion and then incident on the plurality of optical waveguides of the group velocity dispersion portion are equal to each other.

Abstract: A photo conductive antenna irradiated with light pulse and generating terahertz wave includes a first layer formed by a semi-insulating substrate, a second layer located on the first layer and formed using a material having lower carrier mobility than carrier mobility of the semi-insulating substrate, a first electrode and a second electrode located on the second layer and applying a voltage to the first layer, a first region in which the second layer is formed on the first layer, and a second region in which the second layer is formed on the first layer, wherein the second region is located between the first electrode and the second electrode in a plan view, and the light pulse is applied to the second region.

Abstract: What is disclosed is a system and method for focusing a camera on an object of interest in a scene. In one embodiment, an illuminator comprising a light source which emits light at a desired wavelength band is aimed at an object in a scene. The source light beam impacts the object at an aim point. A spectral sensing device senses a reflection of the projected light beam off the object. In response to the reflected light beam having been detected by the spectral sensing device, a location of the object in the scene is determined and communicated to a video acquisition system. A focus of the video system is changed so that the object is brought into the camera's field of view. The object can be tracked as it moves about the scene. A spectral image of the object can be captured and analyzed for the object's material composition.

Abstract: Techniques using small form factor infrared imaging modules are disclosed. An imaging system may include visible spectrum imaging modules, infrared imaging modules, and other modules to interface with a user and/or a monitoring system. Visible spectrum imaging modules and infrared imaging modules may be positioned in proximity to a scene that will be monitored while visible spectrum-only images of the scene are either not available or less desirable than infrared images of the scene. Imaging modules may be configured to capture images of the scene at different times. Image analytics and processing may be used to generate combined images with infrared imaging features and increased detail and contrast. Triple fusion processing, including selectable aspects of non-uniformity correction processing, true color processing, and high contrast processing, may be performed on the captured images. Control signals based on the combined images may be presented to a user and/or a monitoring system.

Abstract: A spectroscopic analysis apparatus includes a light source section having a first light source and second light source that radiate light fluxes, a wavelength tunable interference filter, an imaging section that captures light having passed through the wavelength tunable interference filter to acquire a first spectroscopic image when the object being imaged is irradiated with the light from the first light source and a second spectroscopic image when the object being imaged is irradiated with the light from the second light source, a pixel detector that detects an abnormal pixel in the first spectroscopic image, and a light amount corrector that replaces the amount of light at the abnormal pixel in the first spectroscopic image with the amount of light at a pixel in the second spectroscopic image that is located in the same position as the abnormal pixel.

Abstract: A programmable, many-band spectral imager based on addressable spatial light modulators (ASLMs), such as micro-mirror-, micro-shutter- or liquid-crystal arrays, is described. Capable of collecting at once, without scanning, a complete two-dimensional spatial image with ASLM spectral processing applied simultaneously to the entire image, the invention employs optical assemblies wherein light from all image points is forced to impinge at the same angle onto the dispersing element, eliminating interplay between spatial position and wavelength. This is achieved, as examples, using telecentric optics to image light at the required constant angle, or with micro-optical array structures, such as micro-lens- or capillary arrays, that aim the light on a pixel-by-pixel basis.

Abstract: A digital motion picture camera for taking a sequence of moving images comprises a rotating mirror sector shutter which alternately transmits a received optical path of the motion picture camera as a first imaging optical path and deflects the received optical path as a second imaging optical path; a first image sensor arranged in the first imaging optical path for generating radiation-dependent first image signals; and a second image sensor arranged in the second imaging optical path for producing radiation-dependent second image signals.

Abstract: A video quality comparison tool provides for direct visual perceptual comparison of video sequences. Two inputs are presented at the same position and size, with no-look user choice of which to see and easy back-and-forth comparison while the videos are playing, single-stepping, or paused.

Abstract: A video signal waveform monitor is shown, which receives an input video signal composed of video lines. A video signal digitizer samples the input video signal at video sample points to generate a sequence of video pixel data, which is written into an acquisition framestore is organized into a video pixel array so as to represent a raster of the input video signal. A level analyzer reads the video pixel data row-by-row from segments of the video pixel array and increments video level data at addresses in cache memory in response to the serially-read video pixel data. This generates a sequence of video level data, which is written into an output framestore and which represents the level of the waveform of the input video signal. The segments of the video pixel array comprise at least one and less than all of the columns in the video pixel array.

Abstract: An example system for testing camera modules may include: a polygonal structure that is rotatable, where the polygonal structure includes faces, each of which is configured to receive at least one camera module under test; and targets facing at least some of the faces of the polygonal structure, where each target is usable in testing a corresponding camera module facing the each target.

Abstract: An example system for testing camera modules includes: a structure for holding camera modules under test, where each of the camera modules includes an image sensor, and where the camera modules are arranged in a same plane on the structure and offset from each other in the plane; and a target for use in testing the camera modules concurrently, where the target includes multiple tiles that are repeated, where each tile contains information for use in testing a camera module, and where the camera modules and the tiles are arranged so that different camera modules face different tiles but see at least some of the same information at the same angle.

Abstract: This invention provides a system and method for generating camera calibrations for a vision system camera along three discrete planes in a 3D volume space that uses at least two (e.g. parallel) object planes at different known heights. For any third (e.g. parallel) plane of a specified height, the system and method then automatically generates calibration data for the camera by interpolating/extrapolating from the first two calibrations. This alleviates the need to set the calibration object at more than two heights, speeding the calibration process and simplifying the user's calibration setup, and also allowing interpolation/extrapolation to heights that are space-constrained, and not readily accessible by a calibration object. The calibration plate can be calibrated at each height using a full 2D hand-eye calibration, or using a hand-eye calibration at the first height and then at a second height with translation to a known position along the height (e.g. Z) direction.

Abstract: An organic light emitting display panel includes a display unit at crossing regions of scan lines and data lines, the display unit including a plurality of pixels configured to display different colors, the pixels being arranged in a pattern; a test circuit configured to apply a test signal to the plurality of pixels, the test circuit being coupled to one end of the data lines; and an auxiliary line adjacent to a plurality of signal lines for supplying the test signal to the test circuit and coupled to at least one of the plurality of signal lines.

Abstract: The present invention provides an apparatus for evaluating video quality based on a hybrid type which, when bit stream data is received, extracts first evaluation parameters based on the received bit stream data to calculate a preliminary video quality score based on the first extracted evaluation parameters and then extracts second evaluation parameters, and calculates a final video quality score by adjusting the preliminary video quality score based on the second extracted evaluation parameters and methods thereof.

Abstract: Systems, devices and methods described herein provide or possess functionality that enables capturing an image, images associated with video and/or video. The captured image (or captured images associated with video and/or video) may be communicated to a server (e.g., network operator) that compares the captured image to media stored in a database. That media may include images, images associated with video and/or video. Each of the media may have information associated therewith. Such information may include advertisements, uniform resource locators (URLs), company information, promotions, etc. If the server determines that an image stored in the database matches or substantially matches the image received by the server, the server may retrieve the information that is associated with the stored image. The retrieved information may be communicated to a mobile device that captured the image. The retrieved information may then be displayed by the mobile device and/or presented in another manner.

Abstract: A system and method are provided for remotely monitoring images from an image capturing device. Image data from an image capturing component is received where image data represents images of a scene in a field of view of the image capturing component. The image data may be analyzed to determine that the scene has changed. A determination may be made that the scene has changed. In response to this determination being made, a communication may be transmitted to a designated device, recipient or network location. The communication may be informative that a scene change or event occurred. The communication may be in the form of a notification or an actual image or series of images of the scene after the change or event.

Abstract: A system, method and technique are provided for managing distribution of digital images and other media. A host computer may store a library of media files, including digital images, such as those captured by a digital camera of a user. One or more applications may run on the host computer, or on an Internet service that communicates with the host computer, in order to enable management, sharing and distribution of images stored on the host computer. A remote device may be operated by the user or guest to cause remotely viewed images that reside on the host computer to be transferred to a print service or other third-party service with a corresponding network location.

Abstract: The present invention includes steps of providing the image capturing device with a wireless transmitting non-volatile memory, wherein the image capturing device includes a first display, and wherein the wireless transmitting nonvolatile memory is used to store an image captured by the image capturing device and includes embedded wireless transmitting module, and the wireless transmitting non-volatile memory is separable from the image capturing device, the wireless transmitting non-volatile memory includes a sharing mode for sharing the image, a pair-wise application is coupled to the control unit for pairing with the wireless transmitting non-volatile memory for sharing the image by wireless transmission.

Abstract: An apparatus comprises a receptacle configured to receive a mobile computing device that has an integrated image capture component. Further, the apparatus comprises a plurality of handles such that each handle is operably connected to the receptacle. Another apparatus comprises a receptacle configured to receive a mobile computing device that has an integrated image capture component. Further, the apparatus comprises a handle such that the handle is operably connected to the receptacle.

Abstract: Systems and methods in accordance with embodiments of the invention implement one-dimensional array cameras, as well as modular array cameras using sub-array modules. In one embodiment, a 1×N array camera module includes: a 1×N arrangement of focal planes, where N is greater than or equal to 2, each focal plane includes a plurality of rows of pixels that also form a plurality of columns of pixels, and each focal plane not including pixels from another focal plane; and a 1×N arrangement of lens stacks, the arrangement of lens stacks being disposed relative to the arrangement of focal planes so as to form a 1×N arrangement of cameras, each configured to independently capture an image of a scene, where each lens stack has a field of view that is shifted with respect to that of each other lens stack so that each shift includes a sub-pixel shifted view of the scene.

Abstract: Systems and methods in accordance with embodiments of the invention implement modular array cameras using sub-array modules. In one embodiment, an X×Y sub-array module includes: an X×Y arrangement of focal planes, where X and Y are each greater than or equal to 1; and an X×Y arrangement of lens stacks, the X×Y arrangement of lens stacks being disposed relative to the X×Y arrangement of focal planes so as to form an X×Y arrangement of cameras, where each lens stack has a field of view that is shifted with respect to the field-of-views of each other lens stack so that each shift includes a sub-pixel shifted view of the scene; and image data output circuitry that is configured to output image data from the X×Y sub-array module that can be aggregated with image data from other sub-array modules so that an image of the scene can be constructed.

Abstract: A photographing device according to the present invention comprises: an imaging section that captures a subject image and outputs image data; a motion picture recording section that records a motion picture based on the image data; a parameter setting section that sets a photographing parameter to change a photographing state; and a parameter control section that automatically changes the photographing parameter during the recording of the motion picture regardless of the set photographing parameter.

Abstract: An image capture apparatus according to the present invention includes: sequentially estimating a photographic scene; sequentially setting, based on the photographic scene sequentially estimated, a photographic scene that serves as a basis for judging a photographic condition; sequentially displaying, based on the photographic scene sequentially set, scene identification information indicating the photographic scene being set; and controlling, for each photographic scene, an update condition for determining an update timing of the photographic scene set by the scene setting unit or an update timing of the photographic scene displayed by the scene display unit, so that, with this configuration, it is possible to preferably set a timing or a condition relating to setting.

Abstract: In exemplary implementations of this invention, a light field camera uses a light field dictionary to reconstruct a 4D light field from a single photograph. The light field includes both angular and spatial information and has a spatial resolution equal to the spatial resolution of the imaging sensor. Light from a scene passes through a coded spatial light modulator (SLM) before reaching an imaging sensor. Computer processors reconstruct a light field. This reconstruction includes computing a sparse or compressible coefficient vector using a light field dictionary matrix. Each column vector of the dictionary matrix is a light field atom. These light field atoms each, respectively, comprise information about a small 4D region of a light field. Reconstruction quality may be improved by using an SLM that is as orthogonal as possible to the dictionary.

Abstract: Enhancing the image quality by suitable color noise correction is realized without depending on a subject, a photographing scene, and photographing conditions by determining and correcting a color noise component according to photographing conditions of a camera. The present invention is configured of an imaging device that has: an imaging unit; a signal processing unit that performs signal processing on an image signal inputted from the imaging unit and outputs a luminance signal and a chrominance signal; a camera controlling unit that controls at least one of photographing conditions of optical conditions and exposure of the photographing unit and a signal processing condition of the signal processing unit; and a color noise correction unit that extracts and corrects a color noise component from the chrominance signal inputted from the signal processing unit. The camera control unit controls the color noise correction unit using information of the photographing conditions.

Abstract: A method and an apparatus for image processing in an electronic device are provided. The method for image processing in the electronic device includes obtaining a first image and a second image respectively from a first image sensor and a second image sensor, determining at least one of a first image processing parameter for the first image and a second image processing parameter for the second image as an image processing parameter for the first image and the second image, and displaying at least one of the first image and the second image by considering the image processing parameter for the first image and a second image.

Abstract: An amount of color correction of a facial region is modified based on changes caused in face average values by white balance correction. Also, the amount of color correction of the facial region is modified according to luminance of pixels of interest to perform optimum color correction on the facial region and a highlight region.

Abstract: According to one embodiment, a solid-state imaging device includes a pixel array and a high dynamic range (HDR) synthesizing circuit 19. A pixel is configured as a small pixel group. The HDR synthesizing circuit 19 includes a valid pixel selecting unit 34, a sensitivity ratio correcting unit 35, and a calculation processing unit 36. The valid pixel selecting unit 34 selects one or more small pixels validating a use of a signal value in the HDR synthesis as a valid pixel from among the small pixel group. The sensitivity ratio correcting unit 35 executes sensitivity ratio correction on the signal value of each small pixel. The calculation processing unit 36 uses the signal value of the valid pixel among the signal values of the small pixels from the sensitivity ratio correcting unit 35 for a calculation for the HDR synthesis.

Abstract: There are provided an imaging section imaging a subject and generating a plurality of images; an evaluating section performing evaluation on the plurality of images generated by the imaging section; a selecting section selecting, based on an evaluation result of the evaluating section, a part of images from among the plurality of images generated by the imaging section; a recognizing section performing scene recognition on a plurality of images selected by the selecting section; and a determining section determining, based on a recognition result of the recognizing section, reproduction order of the plurality of images subjected to the scene recognition.

Abstract: An imaging apparatus includes: an imaging device acquiring a captured image on a subject; a display section; setting means for setting whether to make effective a temporary recording mode in which the captured image is temporarily recorded in a first storage section; if the temporary recording mode is effective, display control means for playback displaying the captured image recorded in the first storage section from when the temporary recording mode has been effective on the display section in response to an instruction operation of a user; and recording control means for recording an image specified by the user from the playback-displayed captured images in a second storage section as an image to be saved.

Abstract: This disclosure pertains to systems, methods, and computer readable medium for mapping particular user interactions, e.g., gestures, to the input parameters of various image processing routines, e.g., image filters, in a way that provides a seamless, dynamic, and intuitive experience for both the user and the software developer. Such techniques may handle the processing of both “relative” gestures, i.e., those gestures having values dependent on how much an input to the device has changed relative to a previous value of the input, and “absolute” gestures, i.e., those gestures having values dependent only on the instant value of the input to the device. Additionally, inputs to the device beyond user-input gestures may be utilized as input parameters to one or more image processing routines. For example, the device's orientation, acceleration, and/or position in three-dimensional space may be used as inputs to particular image processing routines.

Abstract: A method of processing an image using an electronic device is provided. The method includes displaying at least part of a first image which is obtained through a first image sensor and at least part of a second image which is obtained through a second image sensor through a display unit which is functionally connected to the electronic device, storing the at least part of the first image, storing the at least part of the second image in response to a detecting of a signal, and storing the at least part of the first image and the at least part of the second image to be simultaneously replayed as at least one image.

Abstract: An image processing system includes a hardware block and a central processing unit (CPU). The hardware block receives a first image and generates a first feature value and a first segmented image from the first image. The CPU generates a first transformation matrix based on the first segmented image and the first feature value. The hardware block also generates a first transformed image by applying the first transformation matrix to the first image.

Abstract: In an image capturing apparatus, a generation unit performs image processing to generate a synchronizing signal for an image sensor, an image generation unit generates image data using an electric signal obtained from the image sensor, and a display control unit reads out the image data stored in a storage unit and displays it on a display unit. The generation unit controls a phase of the synchronizing signal such that the display processing starts when the image processing for a predetermined volume of image data is finished if a frame period (first period) of the image sensor is shorter than a frame period (second period) of the display control unit, and that a predetermined volume of unprocessed image data is left in the storage unit when the image processing for one frame is finished if the first period is not shorter than the second period.

Abstract: An apparatus and a method for processing a plurality of images by using an electronic device are provided. The method includes displaying at least a portion of a first image obtained by a first image sensor functionally connected to the electronic device as a first preview image in a display functionally connected to the electronic device and displaying at least a portion of a second image obtained by a second image sensor functionally connected to the electronic device as a second preview image together with the first preview image in the display. An area of the display for displaying the second preview image corresponds at least to a location of the second image sensor in the display.

Abstract: A method for photographing an image in a device having a camera according to the present invention includes displaying a preview image, identifying a face size of a person included in the preview image, displaying a guide in the preview image, according to a photographing type determined by the identified face size, and photographing and storing an image by capturing the image output by the camera when photographing is requested.

Abstract: An electronic apparatus is described. The electronic apparatus includes an image capture unit, a first image processor, a second image processor, a display unit, and an image storage unit. The image capture unit generates an input image by a photoelectric conversion of incident light. The first image processor generates a display image from the input image and generates a first stored image from the first input image. The input image is divided into a first input image and a second input image. The second image processor generates a second stored image from the second input image. The display unit displays the display image. The image storage unit stores a combined stored image. The combined stored image is a combination of the first stored image and the second stored image.