Abstract: A system and method for obtaining, by an electronic device, a first set of image data recorded during an image capture event and a second set of image data recorded during an image capture event. During the image capture event, a characteristic of an image capture device is changed from a first state to a second state. The first and second sets of image data are recorded by an image capture device having one or more image recording components with one or more image sensor arrays. An image is generated based at least in part on the first and second sets of image data.

Abstract: This image pickup apparatus performs feedback control so that a position of a shake correcting lens converges to a target position. A LPF and a subtracting unit divide a shake signal into low-frequency and high-frequency components. An adding unit combines each output of a high-frequency LPF and a low-frequency LPF and output the target position. A pan/tilt determination unit determines a panning speed from the shake signal. If the panning is fast, the target positions of the low-frequency and the high-frequency are controlled to converge to 0, and calculation for the target position of the high-frequency starts before that of the low-frequency at the end determination. If the panning is slow, only the target position of the low-frequency is controlled to converge to 0. The pan/tilt determination unit changes a determination condition for the detection depending on whether it is at the handheld photographing or the static state.

Abstract: A method operable within an image capture device for stabilizing a sequence of images captured by the image capture device is disclosed. The method comprises, using lens based sensors indicating image capture device movement during image acquisition, performing optical image stabilization (OIS) during acquisition of each image of the sequence of images to provide a sequence of OIS corrected images. Frame-to-frame movement of the device for each frame during which each OIS corrected image is captured is determined using inertial measurement sensors. At least an estimate of OIS control performed during acquisition of an image is obtained. The estimate is removed from the frame-to-frame movement determined for the frame during which the OIS corrected image was captured to provide a residual measurement of movement for the frame. Electronic image stabilization (EIS) of each OIS corrected image based on the residual measurement is performed to provide a stabilized sequence of images.

Abstract: A moving image processing apparatus includes a shake amount acquisition unit configured to acquire and output a shake amount, a period acquisition unit configured to acquire a period during which a change in composition occurs in a video image, a setting unit configured to set a size and position of a cut-out range of image data for each frame of the video image based on the shake amount output from the shake amount acquisition unit, and a correction unit configured to change, based on the shake amount, the position of the cut-out range set by the setting unit in such a way as to correct shaking of the video image.

Abstract: The purpose of the present invention is to provide image processing technology that can reduce shimmering in the entirety of images that include both still regions and moving bodies. This image processing device finds gradient distribution for each of a frame to be corrected and a frame for correction, changes, according to the degree of similarity in the gradient distribution, the proportion in which the frame to be corrected and the frame for correction are used, and then corrects the frame to be corrected using the frame for correction (see FIG. 1).

Abstract: An image processing apparatus calculates correlation values between a plurality of images with respect to relative positions, and detects a motion vector between the plurality of images based on the calculated correlation values. The image processing apparatus then determines the reliability of the motion vector based on a value indicating the highest correlation among the correlation values and a correlation value obtained at a position that is distant by a predetermined distance or longer from a position at which the value indicating the highest correlation is obtained. In this way, the reliability of the motion vector can be determined with high accuracy.

Abstract: An optical image stabilizer includes a motion sensor configured to sense a movement of a camera, and a controller configured to move a lens module based on the movement of the camera. The optical image stabilizer enters a standby mode based on an OIS turn-off command being received from a host, in response to the camera being turned off or a camera function being executed in a background during a stage in which an optical image stabilization (OIS) operation is performed. A portion of the functional blocks of the optical image stabilizer is turned off when a lens control is not performed even when the optical image stabilizer is being operated, thereby decreasing power consumption. Functional blocks as small as possible may be operated when the optical image stabilizer is not operated to decrease power consumption in a smartphone or a camera in which the optical image stabilizer is embedded.

Abstract: A method for controlling an aerial apparatus with a telescopic boom, strain gauge sensors for detecting the bending state of the telescopic boom in horizontal and vertical directions, a gyroscope attached to the top of the telescopic boom and a control arrangement for controlling movement of the aerial apparatus on the basis of signal values gained from the sensors and the gyroscope, the method including the following steps: obtaining raw signals from the sensors and the gyroscope, calculating reference signals from the raw signals, reconstructing a first oscillation mode and a second oscillation mode from the reference signals and additional model parameters related to construction of the aerial apparatus, calculating a compensation angular velocity value from the reconstructed oscillation modes, and adding the calculated compensation angular velocity value to a feedforward angular velocity value to result in a drive control signal.

Abstract: A behavioral recognition system may include both a computer vision engine and a machine learning engine configured to observe and learn patterns of behavior in video data. Certain embodiments may provide image stabilization of a video stream obtained from a camera. An image stabilization module in the behavioral recognition system obtains a reference image from the video stream. The image stabilization module identifies alignment regions within the reference image based on the regions of the image that are dense with features. Upon determining that the tracked features of a current image is out of alignment with the reference image, the image stabilization module uses the most feature dense alignment region to estimate an affine transformation matrix to apply to the entire current image to warp the image into proper alignment.

Abstract: This image pickup apparatus detects a shake and performs feedback control. A LPF and a subtracting unit divide a detection signal into low-frequency components and high-frequency components. An output of the LPF for integrating the high-frequency components and the LPF for integrating the low-frequency components are combined in an adding unit to output the result as the target position of the correcting lens. A HPF removes the low-pass components of the shake amount applied to the image pickup apparatus. A control switching determination unit switches a first control mode for performing an image shake correction by a signal produced by frequency dividing a signal after processing signal with the HPF, and a second control mode for performing the image shake correction by a signal that is generated by subtracting a fixed offset amount calculated with the HPF based on the shake signal and dividing the result into the frequency components.

Abstract: A vehicle event data recorder and an operation method thereof are provided. The vehicle event data recorder includes a photography module, a database, a first image-processing circuit and a second image-processing circuit. The photography module is configured to capture the scene and output an original video frame. The first image-processing circuit generates a first video frame according to part or all of the original video frame, and records the first video frame into a database. The second image-processing circuit generates a second video frame according to part or all of the original video frame, and records the second video frame into the database. Wherein, the view angle of the second video frame is different from the view angle of the first video frame.

Abstract: A method that includes using a point spread function to de-blur an original motion invariant image to create a modified motion invariant image; using an edge detector to find edges in the modified motion invariant image; determining the distances between the edges and corresponding artifacts in the modified motion invariant image; using the distances between the edges and the corresponding artifacts to estimate a velocity of an object in the modified motion invariant image; generating a corrected point spread function corresponding to the estimated velocity of the object; and using the corrected point spread function to de-blur the original motion invariant image and create a resulting image.

Abstract: An image stabilization apparatus includes a first filter, a second filter, and a signal selector configure to select as a correction signal for an image stabilization a signal obtained from an output of one of the first filter and the second filter which has a higher cutoff frequency, when the first filter has the third cutoff frequency or the second filter has the fourth cutoff frequency, and when a difference between a first output of the first filter and a second output of the second filter is larger than a threshold, and then to select as the correction signal a signal obtained from an output of the other of the first filter and the second filter which has a lower cutoff frequency.

Abstract: An image stabilization apparatus comprises a signal separation unit configured to separate a shake signal into a low frequency band and a high frequency band, a panning determination unit configured to determine, based on an output from the shake detection unit, whether a panning operation is performed, and a control unit configured to control a first image stabilization unit based on the high frequency band and control a second image stabilization unit based on the low frequency band, wherein the apparatus has a first mode in which if the panning determination unit determines that a panning operation is performed, control is performed to make the second image stabilization unit approach a center of correction, and no control is performed to make the first image stabilization unit approach a center.

Abstract: A chargeable communication module is provided, which includes: a wireless power charging coil; a wireless communication coil being electrically isolated from the wireless power charging coil; and a magnetic body. The wireless power charging coil is disposed on a surface of the magnetic body. The wireless communication coil is arranged peripheral to the wireless power charging coil on the surface of the magnetic body.

Abstract: An actuator control apparatus includes: a drive circuit configured to apply a current for causing an actuator to drive a driven body; a constant current circuit and configured to control a current value of the current applied to the actuator by the drive circuit; a sense resistance connectable to the drive circuit and in which the current passing through the actuator flows; a change-over switch configured to switch a connection destination of the drive circuit from the constant current circuit to the sense resistance in a predetermined period in a current application period in which the current is applied to the actuator by the drive circuit; and an FPGA configured to detect a resistance value of predetermined circuits including the actuator through which the current passes, based on the current flowing in the sense resistance, and configured to detect an abnormality of the actuator based on the detection result.

Abstract: An electronic device includes a camera; an acceleration sensor that detects an acceleration applied to a housing; a posture determining unit that determines a posture of the housing based on a value detected by the acceleration sensor; and an activation control unit that activates the camera when the posture determining unit determines that the posture of the housing becomes an upright posture.

Abstract: According to the present invention, there is provided a manipulating system including a manipulating apparatus and an electronic apparatus, which is manipulated from the manipulating apparatus by wireless. The manipulating system includes a checking unit for checking whether each of the manipulating apparatus and the electronic apparatus is in a state of moving or in a state of not moving, a determination unit for determining a use state of the manipulating system based on the state of the manipulating apparatus and the state of the electronic apparatus checked by the checking unit, and a control unit for controlling the manipulating system to perform a low-power operation of which power consumption is less than that of a normal operation which is required when manipulating the electronic apparatus by the manipulating apparatus if the determination unit determines that the use state of the manipulating system is a predetermined use state.

Abstract: A motion vector estimation method in video encoding: First, a feature point is detected in a video frame. Next, motion estimation is performed on the feature point to obtain a motion vector of the feature point. Next, the feature point is mapped to a feature image block, and the motion vector of the feature point is used as an initial motion vector of the feature image block. Finally, a distance between each image block and the feature image block is calculated, motion estimation is performed on the image blocks in an ascending order of the distances between the image blocks and the feature image block, and an obtained motion vector of an image block is used as an initial motion vector of an image block that is adjacent to the image block and has not undergone motion estimation, until motion estimation is completed for the image blocks in the entire video frame.

Abstract: A digital camera includes a zoom function for supporting a user when performing a frame assist, and includes an operation switch for instructing startup and completion of the zoom function on an operation unit. A system control unit stores a zoom position in a memory and varies the zoom position in a wide angle position according to a preset zoom-out drive amount when an instruction to startup the zoom function is given by the operation switch. Then, when the instruction to end the zoom function is given by the operation switch, the system control unit executes a zoom-in operation by returning to the zoom position that is stored in the memory.

Abstract: A method for a video recording and editing application analyses the audio and video during the process of video recording using a smart device such as a smartphone or tablet. The method provides feedback to the user during the video recording to improve user performance and reduce video and audio user errors. The method includes the option of automatic skipping or editing of video segments that suffer from user errors during playback.

Abstract: A photographic subject tracking device includes: a first degree-of-similarity calculation unit that calculates degree of similarity between a template image for tracking and an image in search area; a photographic subject position identification unit that identifies a tracked photographic subject position in the input image based on calculated degree of similarity; a second degree-of-similarity calculation unit that calculates a degree of similarity between each of multiple template images for resizing determination, which are generated based on template image for tracking, and image in search area; a matching position identification unit that identifies matching positions of the multiple template images for resizing determination, respectively, in the input image based on calculated degrees of similarity; and a size changing unit that changes an image size of template image for tracking and template images for resizing determination based on a density of the plurality of matching positions identified.

Abstract: An image pickup apparatus includes a shake detecting unit configured to detect a shake of the image pickup apparatus; a first and a second optical correcting unit configured to move in a direction different from an optical axis so as to correct optically an image shake; a first position detecting unit configured to detect a position of the first optical correcting unit and output a first position detection signal; a second position detecting unit configured to detect a position of the second optical correcting unit and output a second position detection signal; and a controlling unit configured to control the first optical correcting unit and the second optical correcting unit. A range for detecting a position of the first position detecting unit is different from that of the second position detecting unit.

Abstract: Systems and methods of capturing imagery are provided. In particular, vibration can be induced in an imaging platform to eliminate blur in one or more images captured by the imaging platform. For instance, vibration having one or more predetermined characteristics can be induced in the imaging platform. The induced vibration can correlate to a sine wave. A collect period can then be identified corresponding to at least a portion of the period of the sine wave wherein the line of sight of the imaging platform approximates an ideal line of sight for eliminating relative motion between the imaging platform and a region of interest. One or more images of the region of interest can be captured by the imaging platform during the collect period. The one or more captured images can then be sent to a remote computing device for processing.

Abstract: An AF unit of a lens holder driving device includes a lens holder, a focusing coil, a permanent magnet having a plurality of permanent magnet pieces having first surfaces opposed to the focusing coil, a magnet holder holding the permanent magnet, and first and second leaf springs supporting the lens holder in a direction of an optical axis shiftably. An image stabilizer portion includes a fixed portion disposed near the second leaf spring, a supporting member swingably supporting the AF unit with respect to the fixed portion, an image stabilizer coil having a plurality of image stabilizer coil portions disposed so as to oppose to second surfaces of the plurality of permanent magnet pieces that are perpendicular to the first surfaces, and a plurality of Hall elements. Each Hall element is disposed at a position where the image stabilizer coil portion is separated into a plurality of coil parts.

Abstract: A preview system of an image capture apparatus has a processing circuit and a display apparatus. The processing circuit reads an input image, scales at least a portion of the input image to generate a first preview image, and derives a second preview image from a selected portion of the input image. The display apparatus displays the first preview image and the second preview image, concurrently. Besides, a preview method for an image capture apparatus includes at least the following steps: reading an input image; scaling at least a portion of the input image to generate a first preview image; deriving a second preview image from a selected portion of the input image; and displaying the first preview image and the second preview image on a display apparatus, concurrently.

Abstract: A blur correction apparatus includes a first fixing member, a moveable member and a second fixing member. A coil for generating a magnetic flux is arranged on the first fixing member. The movable member includes (1) an optical element, (2) a first magnet facing the coil, and (3) a second magnet arranged along a line parallel with an optical axis of the optical element and facing the first magnet, such that the first magnet is arranged between the second magnet and the coil. The movable member can move in a direction perpendicular to the optical axis. The second fixing member includes a hall element that is arranged adjacent to the second magnet. The second magnet is arranged between the first magnet and the hall element. The coil, the first magnet, the second magnet and the hall element are sequentially disposed in a line parallel with the optical axis, in this order.

Abstract: A lens drive apparatus that displaces a lens holder in a direction of an optical axis and a direction orthogonal to the optical axis in collaboration with a magnet and a coil comprises: an assembly that is formed by assembling the lens holder together with a conductive body and comprises a circuit that receives supplied power; a base that is disposed at a position spaced from the assembly and has an aperture through which the optical axis passes; and a plurality of suspension wires that are disposed around the aperture and support the assembly such that the assembly is displaceable in the direction orthogonal to the optical axis, wherein the plurality of suspension wires include a first suspension wire configured to supply power to the circuit, and a second suspension wire configured to supply power to the circuit via a path different from that of the first suspension wire.

Abstract: An imaging apparatus includes a camera body and an interchangeable lens. The camera body includes: an image sensor; an image sensor driver configured to drive the image sensor in a plane perpendicular to an optical axis; a sensor configured to measure a position of the plane; a shake detector configured to detect a camera body shake; and a first image stabilizer configured to correct the detected shake by driving the image sensor driver. The interchangeable lens includes: an image stabilization lens configured to adjust an optical path to correct a shake; an image stabilization lens driver configured to drive the image stabilization lens in a plane perpendicular to the optical axis; and a second image stabilizer configured to correct a shake, based on a position measured by the sensor of the camera body, by driving the image stabilization lens driver.

Abstract: An encoder and a method therein for providing an update message relating to at least one of camera parameters and depth parameters “the parameters”, a decoder and a method therein for decoding the update message, a first device including the encoder and a second device including the decoder are provided. The parameters enable the decoder to synthesize a first view for a first camera position based on a second view for a second camera position and the parameters of the second view. The encoder detects which of the parameters are changing over time. Next, the encoder modularizes the parameters into a respective module. Furthermore, the encoder encodes each respective module into the update message and sends the update message to the decoder. Next, the decoder decodes each respective module of the update message to obtain the parameters which are to be updated.

Abstract: An image pickup apparatus in which an imaging sensor package reflow mounted in advance to a circuit board can be fixed to a fixture member of the image pickup apparatus. A sensor holder of a digital video camera as an image pickup apparatus has a holder body that is positioned to surround an imaging sensor package mounted to a sensor board as a circuit board. Flange portions of the sensor holder are formed to project from a rear end surface of the holder body toward a heat radiation plate having a flat plate shape. The heat radiation plate is fixed to a lens barrel in a state that the flange portions are held between the lens barrel and the heat radiation plate.

Abstract: A lens drive apparatus that displaces a lens holder in a direction of an optical axis and a direction orthogonal to the optical axis in collaboration with a magnet and a coil comprises: an assembly that is formed by assembling the lens holder together with a conductive body and comprises a circuit that receives supplied power; a base that is disposed at a position spaced from the assembly and has an aperture through which the optical axis passes; and a plurality of suspension wires that are disposed around the aperture and support the assembly such that the assembly is displaceable in the direction orthogonal to the optical axis, wherein the plurality of suspension wires include a first suspension wire configured to supply power to the circuit, and a second suspension wire configured to supply power to the circuit via a path different from that of the first suspension wire.

Abstract: The present technology relates to an information processing terminal, an information processing method, and a program capable of naturally suppressing camera shake with a target object being arranged at a certain position on an image. An information processing terminal of an aspect of the present technology includes an imaging unit that takes an image; a display unit that displays the taken image; a measuring unit that measures a motion occurring in the terminal itself; and a display control unit that displays an indicator composed of a plurality of components arranged in a nested structure on the image and varies a position and a size of each component in accordance with the motion. The present technology is applicable to a mobile terminal provided with a camera and a display unit.

Abstract: A method for reducing the jitters of video frames is provided, which includes the steps of dividing a frame into multiple blocks, selecting at least one block according to a variance of each block, determining a global motion vector of the frame in a direction according to the selected block(s), and performing motion compensation on the frame in the direction according to the global motion vector.

Abstract: Provided is an image pickup apparatus that includes: an image pickup unit configured to generate picked-up image data by an image pickup process; a camera shake detection unit configured to detect an angular velocity generated by camera shake when shooting; an electronic image stabilization unit configured to perform an image stabilization process by moving a position of a cropping area in the picked-up image data, based on the angular velocity detected by the camera shake detection unit; and an area changing unit configured to change a size of the cropping area with respect to the picked-up image data, based on the angular velocity detected by the camera shake detection unit.

Abstract: According to an embodiment, a sequence of video frames as produced in a video-capture apparatus such as a video camera is stabilized against hand shaking or vibration by:—subjecting a pair of frames in the sequence to feature extraction and matching to produce a set of matched features;—subjecting the set of matched features to an outlier removal step; and—generating stabilized frames via motion-model estimation based on features resulting from outlier removal. Motion-model estimation is performed based on matched features having passed a zone-of-interest test confirmative that the matched features passing the test are distributed over a plurality of zones across the frames.

Abstract: An image pickup apparatus capable of generating image signals for viewing images shot in a composition (vertical or horizontal) intended by a photographer as a three-dimensional image. The apparatus has an image pickup device for converting an optical image to a picked-up image signal as an electric signal. The device includes a plurality of unit pixels, each of which has a plurality of photo diodes for converting the optical image to the picked-up image signal. When an image pickup operation is performed, a posture of the image pickup apparatus is determined, and the plurality of photo diodes in each unit pixel are grouped into a plurality of photo diode groups according to a result of the determination. A plurality of image signals are generated from picked-up image signals output from the photo diode groups, respectively.

Abstract: A method for an electric device to take a panoramic photograph is provided and the method includes following steps. A first image is captured. A first line is displayed on a preview window. A first graphical object and a second graphical object are displayed on the first line. Posture information of the electric device is obtained. The second graphical object is moved along the first line according to the posture information. It is determined if the electric device is panned horizontally or tilted vertically according to the first line. A second image is captured if the second graphical object reaches the first graphical object and the electric device is panned horizontally or tilted vertically. The panoramic photograph is generated according to the first image and the second image. Accordingly, a user obtains a panoramic photograph easily.

Abstract: An image capturing apparatus comprises a shake detection unit configured to detect a shake, a motion vector detection unit configured to detect a motion vector indicating movement of an image from a captured image signal, a motion vector output control unit configured to selectively output an output of the motion vector detection unit and an output of the shake detection unit, a correction amount calculation unit configured to calculate a shake correction amount based on at least one of the output of the motion vector output control unit and the output of the shake detection unit; and a correction unit configured to correct the image blurring of the captured image based on the shake correction amount.

Abstract: The present invention relates to a camera module including an auto focusing module vertically moving a lens, a handshake compensation module wrapping the auto focusing module, and tilting the auto focusing module to compensate handshake, a circuit board electrically connected to the handshake compensation module, a bottom case supporting the circuit board and coupled to the auto focusing module, a main circuit board fixed to bottom case and electrically connected to an image sensor module and the circuit board, and a spring unit arranged at a periphery of the main circuit board and having a symmetrical opening having thereinside a gap spaced apart at a predetermined distance.

Abstract: A video anti-shaking method and a video anti-shaking device are provided. The method includes: obtaining a first GRMV (global relative motion vector) of a current video frame relative to its previous video frame, and a sequence of second GRMVs of reference video frames relative to their respective previous video frames; calculating a sequence of third GRMVs of the reference video frames relative to the current video frame, respectively, based on the first GRMV and the sequence of second GRMVs; and filtering the sequence of third GRMVs to obtain a motion vector for compensating shaking of the current video frame. Camera shaking and intended motion can be distinguished.

Abstract: An optical device that is capable of reducing eccentric aberration while reducing image blur. A first shake correction unit corrects image blur optically based on a shake amount that is detected by a shake detection unit. A second shake correction unit corrects image blur optically based on a shake amount that is detected by the shake detection unit. The second shake correction unit has a different image blur correction effect from the first shake correction unit. The optical device has a mode in which shake correction is performed using the first shake correction unit without using the second shake correction unit.

Abstract: A method for lens position estimation can include receiving from a lens driver a drive current value representing a current to be provided to a motor to position a camera lens of an electronic device, detecting an orientation of the electronic device using a motion sensor, determining a gravity vector based upon the orientation, and computing an estimated value of a lens position of the camera lens of the electronic device based upon the drive current value and gravity vector.

Abstract: A motion sensing method is implemented by an image sensor, the image sensor including a first pixel and a second pixel. The method includes outputting a first pixel signal of the first pixel during a first integration time of a frame period, outputting a second pixel signal of the second pixel during a second integration time of the frame period, and generating comparison signals indicative of a sensed moving object by comparing the first pixel signal and the second pixel signal.

Abstract: An imaging apparatus includes: a base; an image sensor; and a correction mechanism that prevents an image blur, the correction mechanism including: a movable frame that holds the image sensor; a device for moving in an X-direction; a device for moving in a Y-direction; and an attracting and holding device including: an iron plate provided on one of the movable frame and the base; a magnet plate provided on the other one; and an iron ball provided between the iron plate and the magnet plate, the attracting and holding device attracting and holding the movable frame to the base by attracting the iron plate to the magnet plate via the iron ball, and wherein a guide device moves the movable frame to a side of the base when the movable frame is moved by the devices for moving in the X- and Y-directions in a predetermined direction.

Abstract: A method and apparatus for capturing and recording blur-free images by detecting the motion of the imaging device and the subject of the image and adjusting the image sensor and one or more lens elements to compensate for the motion. The combined optical correction and adjusted image sensor provides blur-free images that are recorded in a memory.

Abstract: An information processing device (first processing device) includes a captured image acquisition section that acquires a captured image from an imaging section (imaging device), a trimming range setting section that sets a trimming range to the captured image acquired by the captured image acquisition section, the trimming range corresponding to an image processing target area that is processed by a server system (second processing device), and a communication section that transmits image information to the server system via a network, the image information being information about an area of the captured image that has been set as the trimming range by the trimming range setting section.

Abstract: Provided is an image stabilization device including a motion sensor for detecting motion data, an image data display unit for displaying image data, a shake coefficient calculation unit for calculating a shake coefficient indicating intensity of shaking based on time-series motion data detected by the motion sensor, and a motion correction unit for performing control on the image data display unit to move the image data in a direction of cancelling the shaking in a case the shake coefficient calculated by the shake coefficient calculation unit becomes less than a predetermined first threshold.

Abstract: A system, method, and computer program product for digital stabilization of video data from cameras producing multiple simultaneous views, typically from rolling shutter type sensors, and without requiring a motion sensor. A first embodiment performs an estimation of the global transformation on a single view and uses this transformation for correcting other views. A second embodiment selects a distance at which a maximal number of scene points is located and considers only the motion vectors from these image areas for the global transformation. The global transformation estimate is improved by averaging images from several views and reducing stabilization when image conditions may cause incorrect stabilization. Intentional motion is identified confidently in multiple views. Local object distortion may be corrected using depth information. A third embodiment analyzes the depth of the scene and uses the depth information to perform stabilization for each of multiple depth layers separately.

Abstract: An imaging device is provided that includes an imaging component, an image processor a display component, and a controller. The imaging component is configured to capture a subject image and produce image information that corresponds to the subject image. The image information has a first region and a second region. The image processor is configured to perform a vignette processing on the second region to produce a vignetted image. The image processor is further configured to enlarge at least part of the first region to produce an enlarged image according to an operation signal from an interface component. The display component is configured to display the vignetted image on the second region and the enlarged image on the first region. The controller is configured to control at least one of the imaging component, the image processor, and the display component.