Abstract: The method of acquiring image comprises: acquiring a first image; determining a first sub-image corresponding to a first object from the first image; and replacing the first sub-image with a second sub-image different from the first sub-image to obtain a second image. This solution may replace the first sub-image with the second sub-image, thereby achieving the technical effect of automatically removing a part of content from the image during image acquiring.

Abstract: A digital camera includes an image sensor unit, a display that displays an image photographed by the image sensor unit, and a photographing guide generating unit that displays a photographing guide on the display when the image sensor unit obtains a stereo image or a panoramic image. The photographing guide generating unit displays, on the display as the photographing guide, an aiming mark that displays a fixed point positioned substantially at the center of the display and a guide mark that is a fixed point in the image photographed by the image sensor unit and has a length necessary for the stereo image or the panoramic image in a moving direction of the digital camera on a screen. Then, it is possible to provide an imaging apparatus capable of stably moving the imaging apparatus upon photographing a panoramic picture.

Abstract: Techniques are described to combine image data from multiple images with different exposures into a relatively high dynamic range image. A first image of a scene may be generated with a first operational mode of an image processing system. A second image of the scene may be generated with a second different operational mode of the image processing system. The first image may be of a first spatial resolution, while the second image may be of a second spatial resolution. For example, the first spatial resolution may be higher than the second spatial resolution. The first image and the second image may be combined into an output image of the scene. The output image may be of a higher dynamic range than either of the first image and the second image and may be of a spatial resolution higher than the second spatial resolution.

Abstract: A method for controlling a camera mode is executed at a camera including a controller, a sensor array, an IR filter, and a lens assembly. The camera is operated in a night mode. While in the night mode the IR filter is not interposed between the lens assembly and the sensor array, the camera receives at the sensor array ambient light that is not filtered by the IR filter, determines whether the received ambient light is due to a light source other than an IR light source, and detects a light level of the received ambient light. The camera switches the operation of the camera from the night mode to a day mode when it is determined the received ambient light is due to a light source other than an IR light source and that the light level of the received ambient light exceeds a first threshold.

Abstract: An imaging device may be configured to monitor a field of view for various objects or events occurring therein. The imaging device may capture a plurality of images at various focal lengths, identify a region of interest including one or more semantic objects therein, and determine measures of the levels of blur or sharpness within the regions of interest of the images. Based on their respective focal lengths and measures of their respective levels of blur or sharpness, a focal length for capturing subsequent images with sufficient clarity may be predicted. The imaging device may be adjusted to capture images at the predicted focal length, and such images may be captured. Feedback for further adjustments to the imaging device may be identified by determining measures of the levels of blur or sharpness within the subsequently captured images.

Abstract: A method of controlling a digital photographing apparatus is provided. The control method includes detecting a gesture of a user for the digital photographing apparatus using a plurality of video images sequentially generated according to live view photographing, changing an operation of the digital photographing apparatus to a zoom adjustment mode when the detected gesture of the user includes a preset first user gesture, and controlling a zooming state of the digital photographing apparatus step-by-step according to a moving path of a second user gesture after the first user gesture has ended, when the operation mode has been changed to the zoom adjustment mode.

Abstract: Methods and apparatus for controlling the read out of rows of pixel values from sensors corresponding to different optical chains used to capture portions of the same image area are described. The readout is controlled based on user input and/or determinations with regard to the rate of motion in captured images or portions of captured images. For a low rate of motion i, the readout rate of a sensor corresponding to a small focal length is slowed down while the pixel row readout rate of one or more sensors corresponding to one or more optical chains have larger focal lengths are allowed to proceed at a normal rate. For a high rate of motion, the read out rate of the sensor corresponding to the optical chain having the smaller focal length is allowed to proceed at the normal rate.

Abstract: A method of processing an image is disclosed. The method comprises obtaining an image decomposed into a set of scaled images, each being characterized by a different image-scale; and calculating, for each of at least some scaled images, a relative luminance between the scaled image and another scaled image of the set, using intensities in the scaled image and intensities in the another scaled image. The method further comprises processing each scaled image using an adaptation procedure featuring an image-specific effective saturation function of the relative luminance, thereby providing a processed scaled image; combining at least some of the processed scaled images to provide a combined image; and outputting the combined image to a computer readable medium.

Abstract: A method comprising reading out first lines of pixels of a sensor, when the first lines are read out in a sequence of the first lines in a first direction along the sensor also reading out different second lines of the pixels of the sensor, when the second lines are read out in a sequence of the second lines in a different second direction along the sensor and interleaving the read outs from the first lines of pixels and the different second lines of pixels.

Abstract: In some embodiments, methods or systems may be provided for an imaging system including an imaging sensor, wherein frames or sub-frames of intensity data may be acquired from some or all pixels of the frame, and a moving kernel, smaller than the frame or sub-frame, is moved over the frame for analysis. The values of the center column of the kernel may be compared to the outer column values of the kernel and a column offset for the center column may be determined. Only one offset value may be stored at any one time for each pixel in the frame or sub-frame.

Abstract: An imaging apparatus includes an image sensor, an AD conversion unit, a clamp processing unit, and a video signal correction unit. The clamp processing unit is configured to clamp to a black level, an image signal of an effective pixel region or an optical-black region of the image sensor after having been digitally converted by the AD conversion unit, by evaluating a difference from a signal of the optical-black region. The video signal correction unit is configured to calculate signal information of a part or whole of the optical-black region of an image signal of the image sensor; and, independently for each color of the video signal, to calculate correction amount of a video signal using the signal information, and to carry out correction by subtracting calculated correction amount from the image signal before clamping operation performed by the clamp processing unit.

Abstract: An imaging apparatus comprising: a dark image data imaging section that obtains dark image data in a state in which light beams entering an imaging surface of an image sensor are shielded before first image data is obtained or after second image data obtained lastly; and a correcting section that corrects a fixed pattern noise in cumulative relatively bright composite image data by using the dark image data, wherein the correcting section corrects the fixed pattern noise in the cumulative relatively bright composite image data by using the dark image data obtained at a time closest to the time in a temperature of the image sensor when the first image data or the second image data is obtained is assumed to be the highest, of the dark image data obtained before the first image data is obtained or the dark image data obtained after the second image data obtained lastly.

Abstract: An image capture device with a reduced number of line buffers. Based on an nth line of image data provided from an image sensor array and buffered data in the line buffers, a logic circuit determines defective candidates in an nth line of image data. When the (n+p)th line of image data is provided from the image sensor array, the logic circuit reexamines the defective candidates in the nth line of image data, for defective-pixel compensation, based on the (n+p)th line of image data and the buffered data in the plurality of line buffers. The buffered data in the line buffers contains the (n?p)th to (n?1)th lines of image data while the nth line of image data is provided from the image sensor array, and contains the nth to (n+p?1)th lines of image data while the (n+p)th line of image data is provided from the image sensor array.

Abstract: Provided is a display apparatus and method. The display apparatus may sense light reflected from an object and passed through a display panel, and may control a power of a backlight unit depending on whether the light has passed through the display panel.

Abstract: A solid-state imaging device includes: a plurality of unit cells each including at least one light receiving unit and an amplifying transistor which outputs an amplified signal corresponding to an amount of the signal charge photoelectrically converted by the light receiving unit; a plurality of vertical signal lines each for receiving an output signal from the amplifying transistor; a pixel power supply line for supplying a power supply voltage to the amplifying transistor; a plurality of constant current source transistors each connected to a different one of the vertical signal lines; and a bias circuit which controls an amount of current to be supplied to each of the constant current source transistors, based on a variation in the power supply voltage.

Abstract: There is provided a solid-state imaging device including an imaging unit including a plurality of image sensors, and an analog to digital (AD) conversion unit including a plurality of AD converters arranged in a row direction, each AD converter performing AD conversion of an electrical signal output by the image sensor. Each of the AD converters includes a comparator having a differential pair at an input stage, the differential pair including a first transistor and a second transistor, the first and second transistors are each divided into an equal number of a plurality of division transistors, and an arrangement pattern of the plurality of division transistors constituting the comparator in a predetermined column and an arrangement pattern of the plurality of division transistors constituting the comparator in an adjacent column adjacent to the predetermined column are different from each other.

Abstract: There is provided an imaging apparatus including an A/D converting unit, wherein reset periods for a plurality of pixels are differentiated.

Abstract: Each of pixels in an imaging device includes a photoelectric converter and a first transistor. A signal based on a charge generated by the photoelectric converter is to be input into the first transistor. The imaging device includes a second transistor arranged at a ratio of one as to the pixels. A reference signal is to be input into the second transistor. The second transistor defines a differential pair together with the first transistor. The imaging device includes a comparator including the first transistor and the second transistor. Each of the pixels includes a selecting unit configured to turn off the first transistor by applying the first voltage to a control node of the first transistor.

Abstract: The imaging apparatus has a plurality of pixels each of which has a plurality of photoelectric conversion units; generates a plurality of first combined signals obtained by combining signals based on electric charges of photoelectric conversion units in one side with each other, and a plurality of second signals obtained by combining signals based on electric charges of the plurality of photoelectric conversion units with each other; and outputs a part of the first combined signals out of the plurality of first combined signals.

Abstract: An image sensor includes a row driver, a pixel array, an analog-to-digital converter, and an output compensating circuit. The row driver generates a photo-gate control signal, a storage control signal, a transfer control signal, a reset control signal and a row selecting signal. The pixel array includes a plurality of pixels, and each pixel uses a deep trench isolation (DTI) region as a photo gate. The pixel array receives optical signals, converts the optical signals to electric signals, and outputs the electric signals as image signals in response to the photo-gate control signal, the storage control signal, the transfer control signal, the reset control signal, and the row selecting signal. The analog-to-digital converter performs an analog-to-digital conversion on the image signals to generate first signals, and the output compensating circuit compensates the first signals.

Abstract: A digital video signal has a frame rate and a resolution within a range of resolutions. If the resolution of the received digital video signal is in a lower resolution range then it is not compressed or if in a higher resolution range the video color data is compressed by a constant compression ratio. Frames of digital color samples are transmitted and frames of digital color samples are received at the same frame rate. The received compressed digital color samples are expanded by a constant expansion ratio when transmitted in a compressed format and not expanded if transmitted in the uncompressed video format. A digital video signal is output with a resolution the same as the resolution of the original digital video signal.

Abstract: A video data transmitter apparatus generates and transmits a multi-value amplitude modulation signal by performing a multi-value amplitude modulation of a plurality of N bits per one symbol according to video data of a video signal or a color signal constituting the video signal, or a brightness signal and a color-difference signal. A data separator portion separates the video data into first to N-th pixel data, a difference calculator portion calculates (N?1) pieces of predetermined difference information based on the separated first to N-th pixel data, and a multi-value amplitude modulator portion performs a multi-value modulation so that predetermined N-bit data corresponds to a multi-value signal level closest to an intermediate level having an intermediate value between a maximum level and a minimum level of the multi-value signal level of the multi-value amplitude modulation signal.

Abstract: A method in which a mobile terminal displays information is provided. The method includes: transmitting, to an external display device, a first signal for selecting an object displayed on the external display device based on a first input of a user through the mobile terminal; transmitting, to the external display device, a second signal for requesting additional information corresponding to the selected object based on a second input of the user through the mobile terminal; and displaying, on a screen of the mobile terminal, the additional information received from the external display device.

Abstract: System, methods, apparatus, and computer-readable media to facilitate expansion of media device interface capabilities are provided. A state change with respect to one or more media devices may be detected. The state change may correspond to a second media device being communicatively coupled to, or communicatively decoupled from, a first media device. Consequent to the detecting, a set of interface ports, which are configured to interface with multimedia devices, may be determined. Configuration information may be generated based at least in part on the set of interface ports. The configuration information may be transferred to a sink device to indicate interface options based at least in part on the set of interface ports. Content may be transferred to the sink device based at least in part on audio and/or visual data via at least one interface port of the set of interface ports.

Abstract: A laser projection device is described for projecting laser beams onto a projection plane, including a controllable multibeam laser diode unit; including a controllable optical deflection unit, which is designed in such a way that laser beams generated by the multibeam laser diode unit are deflected with the aid of the deflection unit; and including a control unit, which is designed in such a way that it controls the deflection unit to move laser beams deflected by the deflection unit onto a projection plane along a scanning line in such a way that different deflected laser beams run in the projection plane on the same scanning line.

Abstract: An object of the present invention is to realize an imaging device and recording control system in which the usability thereof can be improved dramatically. In an imaging device configured to output imaging data that is obtained as a result of imaging of an object, and a recording control system, the imaging device comprises a control means for recognizing a controlled state of an external recording device when a communication is enabled with the recording device through a communication means conforming to a predetermined transmission method and an input means for allowing the recording device to execute an application needed for a recording operation obtained by controlling the recording device, and the recording device records the imaging data obtained through the communication means when the application is executed by means of the input means.

Abstract: A system and method of producing a frame of a video image from an interlaced field. In one embodiment, the method includes: (1) creating an equal-intensity trace from present samples in the field, (2) recognizing an equal-intensity path in the equal-intensity trace, (3) at least partially straightening the equal-intensity path and (4) using the equal-intensity path to determine an intensity value for a missing sample in the frame.

Abstract: The single removable cable is capable of transporting both the power and the data between a powering device and one or more powered devices. At least one signal line is configured to transport data over the single removable cable. At least one electrical conductor configured to transport power for operating the one or more powered devices.

Abstract: A telepresence system includes a projector for generating an image, a projection screen for reviewing the image generated by the projector and generating a reflected image and a foil for reviewing the reflected image generated by the projection screen. The foil generates and directs partially reflected image toward an audience, the partially reflected image being perceived by the audience as a virtual image or hologram located on a viewing stage. Additionally, the system incorporates a camera for filming an individual through the foil, the camera being located on a camera side of the foil and positioned adjacent to the viewing stage, the individual being located on an individual side of the foil and positioned on a filming stage.

Abstract: The communication device which includes a TV phone pausing visual data selecting implementer, a TV phone implementer, a TV phone pausing visual data transferring implementer, and an audio playback implementer.

Abstract: Provided is a video intercom device for suppressing electric power consumption. The video intercom device adopts a configuration where the video intercom device switches between a first communication method by which an indoor master unit or a telephone master unit and a front door slave unit performs wireless communication under a predetermined condition, and a second communication method with electric power consumption lower than that of the first communication method, the first communication method is switched to the second communication method when the indoor master unit registers the front door slave unit, and the second communication method is switched to the first communication method when a telephone master unit registers the front door slave unit.

Abstract: Example implementations are related to establishing, by an application delivery system in response to an identification of an application from a client device, a video conferencing session between a first video conferencing endpoint provided on the application delivery system and a second video conferencing endpoint provided on a client device, selecting a video capture module as a video input device for the first video conferencing endpoint, receiving, by the video capture module provided on the application delivery system, display data output by the application, converting, by the video capture module, the display data to a plurality of video frames, streaming the plurality of video frames received via the video capture module from the first video conferencing endpoint to the second video conferencing endpoint via the video conferencing session; and receiving, by the application delivery system from the client device, a user input signal for the application.

Abstract: Embodiments of the disclosure provided herein generally include a system and a method of configuring and/or controlling one or more electronic devices using a portable electronic device based on the interaction of the portable electronic device with a beacon signal generating system that is disposed at a desired location. Embodiments of the disclosure may include a system and a method of collecting and analyzing useful information received by the portable electronic device based on the receipt of a beacon signal. The portable electronic device may then perform one or more desirable functions or processes based the portable electronic device's interaction with the beacon signal generating system.

Abstract: A multipoint communication server for establishing multipoint communication between a plurality of endpoints, the multipoint communication server comprising: a data repository containing the set of endpoints identifiers wherein each endpoint identifier corresponds to a participating endpoint, a media processing unit configured to receive an upstream media stream from an emitting endpoint, the media processing unit being further configured to generate a plurality of downstream media streams for the participating endpoints, wherein the data repository further contains a replication inhibition set which consists of a subset of the set of endpoint identifiers and comprises at least the endpoint identifier of the emitting endpoint, wherein the media processing unit is configured to generate the downstream media stream for each participating endpoint whose endpoint identifier belongs to the replication inhibition set so that the downstream media stream does not replicate the upstream media stream.

Abstract: A configuration module (6) for a video surveillance system (1) having a plurality of surveillance cameras (2 a-d) which are and/or may be distributed throughout a surveillance region (3) including, a model memory (7) which is designed to provide a model (10) of the surveillance region (3), camera data of the surveillance cameras (2 a-d) being entered and/or referenced in the model (10); an input interface (11) for the input of at least one surveillance target (5) into the model (10); a computing device (12) which determines at least one camera-specific surveillance target section (13 a, b) for at least one of the surveillance cameras (2 a, b) based on the surveillance target (5) that was input; and a hidden-region checking device (16) which is designed to a check whether the surveillance target (5) is hidden in front of one of the surveillance cameras (2 a-d).

Abstract: Video transaction machines (VTMs) facilitate communications and transactions between customers of a financial institution and video transaction resources, such as video agents, by establishing a video session between a VTM and a video agent workstation. After a computing device of the financial institution receives information identifying the customer, VTM, or VTM location requesting the services of a video agent, the computing device may place the customer in one or more virtual queues based on an overall visit time at the VTM location. In order to maintain a visit time at the VTM location below a predetermined visit time threshold, the controller may prioritize transactions at VTMs with longer visit times over transactions at VTMs with shorter visit times.

Abstract: A defective pixel of an imaging device is detected. An output pixel value of the defective pixel is corrected to generate an output image. An imaging device, and a signal processing unit for analyzing an output signal from the imaging device and detecting a defective pixel are included. The imaging device receives incident light via, for example, a microlens placed in front of a pixel, inputs the same subject light on a local area basis including a plurality of pixels of the imaging device, and acquires an image signal lower than a pixel resolving power corresponding to the pixel density of the imaging device. The signal processing unit compares the pixel values of the same color pixels included in a local area on a local area basis including a cluster of the plurality of pixels of the imaging device, detects the defective pixel based on the comparison result, and corrects and outputs a pixel value of a pixel determined to be a defective pixel.

Abstract: A single pixel sensor is provided, comprising a photo sensor configured to convert light into proportional signals; a charge storage configured to accumulate, repeatedly, a plurality of the signals converted by the photosensor; a first transistor coupled between a pixel voltage terminal and the photosensor; a second transistor coupled between the photosensor and the charge storage; and a readout circuit coupled between the charge storage and an output channel, wherein: the single pixel sensor is configured to carry out the repeated accumulations of signals multiple times per each readout by the readout circuit, the single pixel sensor is configured to synchronously convert reflections of light emitted by an associated illuminator or to convert light emitted by non-associated flickering light sources, and wherein the single pixel sensor is backside illuminated by the light.

Abstract: An image projection apparatus includes a light modulation device that modulates light according to image data; a projecting unit that projects modulated light; an angle-of-view deriving unit that derives an angle of view at which modulated light is projected; a projection-direction changing unit that changes a projection direction from a first direction to a second direction; a projection-angle deriving unit that derives a projection angle between the first direction and a changed projection direction; a storage unit that stores image data; and an image cutting unit that generates cut-out image data by cutting a part of the image data based on the angle of view and the projection angle as image data projected from the first direction through the second direction, and the minimum variable angle is determined based on the angle of view and a size of an effective region of the modulated light.

Abstract: A portable terminal device having a first color temperature sensor that is provided on a first side of the portable terminal device, and having a second color temperature sensor that is provided on a second side of the portable terminal device, the portable terminal device includes, at least one camera module configured to capture an image; and an image processor configured to perform image correction to the image that is captured by the camera module based on at least one of first information from the first color temperature sensor and second information from the second color temperature sensor.

Abstract: A system includes: an image capture device configured to capture image data from a camera system, the image data being in a first mosaic layout; an image display device configured to display the image data in a second mosaic layout; and a processor configured to receive the image data in the first mosaic layout and to supply the image data in the second mosaic layout to the display without intermediate conversion to a fully collocated image layout.

Abstract: An image processing apparatus includes a display control unit that causes a content view which displays statistic information of characters appearing in video content and a relationship view which displays character-relation information of the characters appearing in the video content, to be displayed on a predetermined display unit.

Abstract: A method for superimposing images on three-dimensional content, wherein a video stream is received which includes the three-dimensional content and a depth map for superimposing images on the three-dimensional content. Once the video stream has been received, images are superimposed on the three-dimensional content in a position in depth dependent on the superimposition depth map (DM). The superimposition depth map contains information about the depth of the three-dimensional content and is inserted as an image contained in a frame (C) of the video stream. The depth map has a smaller number of pixels than that of a two-dimensional image associated with the three-dimensional content. The invention also relates to devices enabling the implementation of the methods.

Abstract: Externally-set mask patterns are corrected into corrected mask patterns in a variable correction degree. A depth map is processed for each of areas designated by the corrected mask patterns respectively. The depth map is for an input image. A different-viewpoint image is generated on the basis of the input image and the processed depth map. The different-viewpoint image relates to a viewpoint different from the viewpoint concerning the input image. A texture in the input image is analyzed to obtain an analyzation result. The correction of the externally-set mask patterns into the corrected mask patterns includes varying the correction degree in response to the obtained analyzation result.

Abstract: A method is provided that includes displaying a user interface including at least one menu item using at least one of first image data or second image data, receiving a signal related to the at least one menu item, and changing a spacing of the first image data and the second image data displayed on a screen in response to the received signal such that a change of depth of the menu item is perceived by a viewer.

Abstract: An image pick apparatus includes: an imaging element that includes a first pixel group and a second pixel group that respectively photo-electrically converts luminous fluxes that pass through different areas of a single imaging optical system, generates a first image formed by an output value of the first pixel group and a second image formed by an output value of the second pixel group, and is built therein with a pixel addition unit that adds a pixel value of the first pixel group and a pixel value of the second pixel group to generate a two-dimensional image; and an image processing section that matches a shading shape of the first image and a shading shape of the second image with a shading shape of the two-dimensional image by calculating correction coefficients stored in a memory for the output values of the first pixel group and the second pixel group.

Abstract: An image processing apparatus includes: an acquisition mechanism acquiring image data of a 3D image including a left-eye image and a right-eye image, and superimposed-area information being information on a superimposed area included in the left-eye image and the right-eye image; and a disparity detection mechanism detecting an amount of disparity in an area excluding the superimposed area identified by the superimposed-area information of the left-eye image and the right-eye image.

Abstract: Embodiments of the invention may include a scanning device to scan three dimensional objects. The scanning device may generate a three dimensional model. The scanning device may also generate a texture map for the three dimensional model. Techniques utilized to generate the model or texture map may include tracking scanner position, generating depth maps of the object and generation composite image of the surface of the object.

Abstract: A stereoscopic map display system includes (a) a stereoscopic vision display unit for providing a stereoscopic vision by displaying a right-eye image and a left-eye image with parallax so as to be visually recognizable by the right eye and the left eye, respectively, (b) a map database storage unit for storing map data, and (c) a display control unit for providing the right-eye image and the left-eye image at least part of which has the parallax, to the stereoscopic vision display unit based on the map data. The map data stores feature data indicating a shape of a feature and a display-depth adjusted object indicating an object other than the feature and displayed by a display depth under a predetermined rule. The display control unit displays the display-depth adjusted object with the multi-staged display depths under a predetermined rule for an attribute or a display position thereof.

Abstract: A 3D image display device includes a display panel and a viewpoint divider. The display panel includes pixels arranged in a matrix shape and respectively representing one color among primary colors and light blockers provided between the pixels. The viewpoint divider divides an image displayed by the display panel into at least two viewpoints, the viewpoint divider including viewpoint dividing units. The viewpoint dividing units are located in parallel with respect to a column direction of the display panel. A number NP of pixels at a unit view region satisfies NP=2(3n+1)+1, a number NL of viewpoint dividing units satisfies NL=3n+1, and a number NV of viewpoints satisfies NV=2(3n+1)+1 when a width ratio of the pixels in a row direction and the light blockers in the row direction is 3n:1. The NP pixels are located to correspond to the NL viewpoint dividing units.