Abstract: A portable electronic device comprises a display facing in a first direction, a video camera facing in a second direction substantially opposite to the first direction, and a wireless communications receiver operable to receive supplementary image data from a remote image source, the supplementary image data comprising an indication of where a supplementary image is positioned with respect to a reference image. The portable electronic device is arranged in operation to display a captured image from the video camera on the display of the portable electronic device. When the captured image comprises all or part of the reference image as displayed on a separate display associated with the remote image source, the portable electronic device is arranged in operation to display the supplementary image positioned with respect to the reference image, instead of the corresponding part of the captured image.

Abstract: An object of the present invention is to provide an actuator allowing a control of displacement and configured to offer a high degree of freedom in designing, and a drive device and an imaging device including the actuator. To achieve the object, an actuator is adopted including a movable part deformable in accordance with heat generation and a control section controlling the amount of deformation of the movable part. In the actuator, the movable part is structured with a plurality of portions including a base portion, a force generating portion, and a heat generating portion being stacked, the force generating portion generating force in accordance with heating, the heat generating portion generating heat in accordance with a current supply. The control section controls the amount of deformation of the movable part by controlling the current supply to the heat generating portion based on an electrical resistance in the heat generating portion.

Abstract: Imaging systems and methods for calibrating imaging systems are provided. The imaging system has a body, a scene image capture system that captures images using a taking lens system that can be set to a plurality of different focus distances, and a rangefinder that is capable of determining a distance between the imaging system and at least one portion of a field of view of the talking lens system. The method comprises: automatically capturing a first calibration image of a first field of view through the taking lens system with the taking lens system set to a first focus distance setting; identifying a portion of the first calibration image having a predetermined degree of focus; using the rangefinder to determine a first calibration distance from the imaging device to the identified portion. A focus correlation is determined based upon the first calibration distance and the first focus distance setting.

Abstract: A microphone apparatus of the present invention is applied to a camera including a panel type view finder for displaying a picture taken by the camera, a touch panel for pointing a desired position of the picture displayed on the view finder, determining circuit for determining a direction of the real picture in accordance with the position pointed by the touch panel, a microphone device having a plurality of microphone units for collecting a sound that comes from the picture taken by the camera; and directivity generating circuit for generating a sound directivity signal with which the microphone device collects the sound coming from the direction determined by the determining circuit.

Abstract: An image pickup device is disclosed that has little deformation caused by thermal expansion of a transparent resin for sealing an image pickup element. The image pickup device includes an image pickup element having a light receiving surface, a micro-lens for condensing incident light to the image pickup element, a first transparent plate disposed on the light receiving surface of the image pickup element with the micro-lens in between, a transparent resin that seals the image pickup element and the first transparent plate, and a second transparent plate disposed on the transparent resin to face the first transparent plate.

Abstract: An apparatus and method for determining confidence in focus direction detection, including the steps of capturing a plurality of images, calculating sets of matching errors and blur difference estimations relating to the images, capturing a plurality of object images; calculating sets of matching errors and blur difference estimations relating to the images, calculating a confidence indicator as a function of either the matching errors or blur difference estimations, and automatically adjusting a focus control element in response to said confidence indicator exceeding a threshold value.

Abstract: An electronic camera includes an imager, having an imaging surface capturing a scene, which repeatedly outputs a scene image. An extractor extracts a specific reference image coincident with a partial image outputted from the imager corresponding to a predetermined area allocated to the imaging surface, from among a plurality of reference images. An adjuster executes a process of adjusting an exposure amount by emphasizing the predetermined area in parallel with the extraction process. An identifier identifies a color of an object equivalent to the partial image, corresponding to extracting the specific reference image. A corrector executes a process of correcting a tonality of the scene image with reference to the identified result, in place of the extraction process. A searcher searches for a partial image coincident with the specific reference image from the scene image having the corrected tonality.

Abstract: Detecting video phenomena, such as fire in an aircraft cargo bay, includes receiving a plurality of video images from a plurality of sources, compensating the images to provide enhanced images, extracting features from the enhanced images, and combining the features from the plurality of sources to detect the video phenomena. Extracting features may include determining an energy indicator for each of a subset of the plurality of frames. Detecting video phenomena may also include comparing energy indicators for each of the subset of the plurality of frames to a reference frame. The reference frame corresponds to a video frame taken when no fire is present, video frame immediately preceding each of the subset of the plurality of frames, or a video frame immediately preceding a frame that is immediately preceding each of the subset of the plurality of frames. Image-based and non-image based techniques are described herein in connection with fire detection and/or verification and other applications.

Abstract: A color reproduction apparatus may include a white balance performing unit to perform white balance with respect to an image obtained from a sensor using a white balance gain, an image restoring unit to restore an RGB image from the white-balanced image by interpolating a color filter array image, a first color corrector to correct a color distortion caused by a light source by applying first correction data, and a second color corrector to correct a color distortion caused by a characteristic of a sensor by applying second correction data.

Abstract: An electronic device includes an image capture module, an image processing module, and a display module. The image capture module includes a first capture unit for capturing a first image and a second capture unit for capturing a second image. The first capture unit is simultaneously enabled with the second capture unit. The second image has an overlapping view with the first image. The image processing module includes an image cropping unit and an image stitching unit. The image cropping unit crops the first image to keep a first section of the first image, and further crops the second image to keep a second section of the second image. The first section is different from the second section. The image stitching unit stitches the first section and the second section into an integrated image. The display module displays the integrated image.

Abstract: A signal processing method is provided. The method includes: generating an output signal containing a high-precision component at a level not determined by quantization of an input digital signal by subjecting each of pixels constituting the input digital signal to a predetermined filter operation such that a set of predetermined number of pixels including a target pixel and surrounding pixels thereof is obtained, the operation is carried out on the surrounding pixels when a variation from the target pixel is within a predetermined threshold range, and the operation is carried out on the target pixel when a variation from the target pixel is out of the predetermined threshold range; separating the high precision component from the signal output from the edge-preserving smoothing filter; and adding the high precision component separated from the high-precision component separating part to the input digital signal.

Abstract: An image pickup apparatus includes a frame operation unit configured to perform addition to or subtraction from a frame and a storage unit configured to store a result of an operation performed by the frame operation unit. A data bus including two channels, one for writing to the storage unit and the other for reading from the storage unit, is provided between the frame operation unit and the storage unit.

Abstract: A size estimation method is used with a document camera to estimate an object size. The document camera includes a lens and an image sensor. The size estimation method includes the following steps. Firstly, an object distance between the lens and the object is detected. According to the object distance and a viewable angle of the lens, a shooting zone size is estimated. Then, the object is shot by the lens and the image sensor, thereby acquiring a digital image including an image of the object. Then, an effective pixel number corresponding to the object image is counted. Afterward, the size of the object is estimated according to the effective pixel number, a total pixel number of the image sensor and the shooting zone size.

Abstract: An image processing device calculates a coordinate transformation coefficient for each of a plurality of regions, and, for at least one point of interest in a local region, calculates a correction amount that is used when blur in a target image is corrected using a coordinate transformation coefficient for the local region and a correction amount that is used when the blur in the target image is corrected using a coordinate transformation coefficient for a region neighboring the local region. In this case, if the correction amount difference does not fall within a predetermined limit value, a coordinate transformation coefficient is newly obtained for each of the plurality of regions including the local region so that the correction amount difference falls within the predetermined limit value, and the target image is corrected for each region using the newly obtained coordinate transformation coefficient.

Abstract: A digital photographing apparatus capable of performing high-speed continuous shooting and immediately storing data regarding a captured image. The digital photographing apparatus includes an image capture device for generating first data regarding an image generated from light input in response to a signal input by a user, a first data reading unit for reading the first data in units of a plurality of interlaced groups, a data conversion unit for converting the read data into second data, and a display unit for displaying an image generated from light incident on the image capture device. The data conversion unit starts conversion of the read data into the second data when the first data reading unit reads a last group of the first data.

Abstract: Methods and apparatus for rich image capture using focused plenoptic camera technology. A radiance camera employs focused plenoptic camera technology and includes sets of modulating elements that may be used to modulate the sampling of different aspects of the range of plenoptic data. The radiance camera, via the modulating elements, may capture a particular property of light, such as luminance, color, polarization, etc., differently in different microimages or in different portions of microimages. With the focused plenoptic camera technology, the microimages are captured at the same time in a single image. Thus, multiple microimages of the same image of a scene may be captured at different exposures, different colors, different polarities, and so on, in a single image at the same time. Captured images may be used, for example, in High Dynamic Range (HDR) imaging, spectral imaging, polarization imaging, 3D imaging, and other imaging applications.

Abstract: The optical path of the light having spread at each point of an object to be shot is limited by an iris unit of a density filter. Since the density filter unit has a desired transmittance characteristic, the amount of the light passing through the density filter unit continuously changes from the center of the luminous flux toward the periphery. After the luminous flux forms an image on the image forming surface, it spreads toward the light-receptive surface of an image sensor, and becomes an image spreading on the light-receptive surface in a predetermined range.

Abstract: An eyepiece lens includes, in order from an image display surface side to an observer side, a positive first lens, a negative second lens, and a positive third lens. A surface on the image display surface side of the positive first lens has a refractive power stronger than a refractive power of an opposite surface thereof. The negative second lens has a meniscus shape, and a surface on the image display surface side of the negative second lens has a convex shape. Both surfaces of the positive third lens have a convex shape. In the eyepiece lens, during diopter adjustment, the first through the third lenses move along an optical axis. A focal length (f) of the entire eyepiece lens and a diagonal length (H) of the image display surface satisfy the following conditions: 0.45<H/f<0.70, and 21.0 (mm)<f<29.0 (mm).

Abstract: An apparatus and method for capturing an image on a mobile device having a flash comprising a red light source and a white light source is presented herein. A detection of a color spectrum of ambient light is made using image data sensed by an image sensor. Additionally, a determination of an intensity of red light when combined with an associated intensity of white light results in a color spectrum that substantially matches the color spectrum of the ambient light. The flash emits white light from the white light source of the flash and red light from the red light source of the flash. An image from a camera module is recorded during the emission of the white and red light.

Abstract: The invention provides an electronic apparatus. In one embodiment, the electronic apparatus comprises a video camera, a video processing module, an array microphone, and an audio processing module. The video camera adjusts a focal length according to a zoom-in/out control signal and captures an image of a plurality of target objects according to the focal length to generate a raw video signal. The video processing module generates the zoom-in/out control signal to adjust the focal length of the video camera. The array microphone comprises a plurality of microphones converting sounds of the target objects into a plurality of raw audio signals. The audio processing module adjusts a beamwidth for beamforming according to the zoom-in/out control signal, and performs a beamforming process according to the beamwidth on the raw audio signals to generate a first audio signal comprising mainly voice components of the target objects.