Abstract: An image sensing device includes a floating diffusion node, a reset circuit coupled between a supply terminal of a high voltage and the floating diffusion node, and suitable for resetting the floating diffusion node with the high voltage during a reference period based on a reset control signal, a photodiode coupled between a supply terminal of a low voltage and a coupling node, and suitable for generating a photocharge based on incident light during an exposure period, a transmission block coupled between the coupling node and the floating diffusion node, and suitable for transmitting the photocharge to the floating diffusion node during a transmission period based on a transmission control signal, and a selection circuit coupled between an input terminal of a boost control signal and an output terminal of a pixel signal, and suitable for generating the pixel signal with a boost voltage greater than the high voltage during the transmission period based on a selection control signal and a voltage applied to t

Abstract: A pixel array for reducing image information loss and an image sensor including the same are provided. The pixel array includes a plurality of color filter array (CFA) cells having a certain size and each including a plurality of CFA blocks in width and length directions of the CFA cell, wherein each of the CFA blocks includes a sub block, which is at a central region of each of the CFA blocks and includes m*n color pixels, and an outer region, which is other than the sub block and includes color pixels, wherein the m*n color pixels of the sub block include color pixels sensing first through third colors, and the outer region includes a relatively high number of first pixels sensing the first color and a relatively low number of second pixels sensing at least one selected from the second color and the third color.

Abstract: A method of manufacturing a camera module that includes a housing having an inner space, a frame disposed in the inner space of the housing and configured to accommodate a lens barrel therein, and optical image stabilization driving wires including driving wires driving the frame in a direction perpendicular to an optical axis. The method includes fixing both end portions of a target driving wire, among the driving wires, to a first inner side surface of the housing, disposing the frame adjacent a second inner side surface of the housing that opposes the first inner side surface, and coupling a center part of the target driving wire to a mounting member of the frame that faces the first inner side surface of the housing.

Abstract: Architectures and techniques are presented that can record video data and wireless communication device data. Signals from sources outside a field of view of a camera recording the video data can be filtered. Such can affect a shielding technique in which a signal shielding apparatus is adjusted in orientation based on an orientation of a camera device. Techniques are further presented to synchronize, according to time, video data and device data. Such synchronization can allow for improved correlation between visual objects (e.g., recorded by the camera) and radio objects (e.g., recorded by a transceiver). For example, visual techniques can be employed to estimate distance/locomotion of a visual object, whereas signal strength metrics can be used to estimate distance/locomotion of a radio object, and the relationship between the two can indicate a strong correlation that a particular device ID is linked to a particular visual object and vice versa.

Abstract: This invention provides a vision system that is arranged to compensate for optical drift that can occur in certain variable lens assemblies, including, but not limited to, liquid lens arrangements. The system includes an image sensor operatively connected to a vision system processor, and a variable lens assembly that is controlled (e.g. by the vision processor or another range-determining device) to vary a focal distance thereof. A positive lens assembly is configured to weaken an effect of the variable lens assembly over a predetermined operational range of the object from the positive lens assembly. The variable lens assembly is located adjacent to a front or rear focal point of the positive lens. The variable lens assembly illustratively comprises a liquid lens assembly that can be inherently variable over approximately 20 diopter. In an embodiment, the lens barrel has a C-mount lens base.

Abstract: A video processing method includes receiving a video to be edited including a target object and shot by a photographing device mounted at an aircraft, determining a first video frame from the video to be edited, determining a display area of the target object in the first video frame, and obtaining a target video including performing an adjustment processing on an image position of the target object in a second video frame of the video to be edited according to the display area. The image position of the target object in the second video frame after being adjusted is the same as an image position of the display area in the first video frame.

Abstract: The present invention provides an anti-shake method for a panoramic video, which comprises: obtaining, in real time, an output video frame, a fisheye image corresponding thereto, a pixel timestamp in the video frame, and a corresponding camera gyroscope timestamp; synchronizing the pixel timestamp in the video frame with the corresponding camera gyroscope timestamp, and calculating a rotation matrix of the camera movement in the camera gyroscope timestamp; smoothing the camera movement and establishing a coordinate system of a smooth trajectory; correcting the fisheye image distortion; and rendering the fisheye image by means of forward rendering to generate a stable video. According to the present invention, the rolling shutter distortion of a panoramic video sequence can be corrected, the image distortion caused by the rolling shutter of a CMOS can be corrected, and the rolling shutter is eliminated, thereby achieving a better anti-shake effect of a video image.

Abstract: A smart chip assembly capable of communicating with each other and variable array in packaging contains at least two intelligent single-chip, which can be easily formed into a smart chip assembly by cutting after packaging. Each intelligent single-chip has a camera lens module, and each lens module is arranged in a different position and angle to separately obtain images of different angles or depths of field of the object to be recognized, and provide each intelligent single-chip to independently process the image and judge by itself. The result of each judgment based on the obtained images of different angles or depths of field can also be used as one of the options for reference judgment. Then through the mutual communication between the intelligent single-chips, they calculate and analyze different image and image dynamics, and make comprehensive judgments to obtain the best interpretation.

Abstract: Technologies relating to AI fusion pixel sensor for MLP using active pixel sensors with memristors are disclosed. An example apparatus includes: many of active pixel sensors, wherein each active pixel sensors includes: a photodiode configured to receive image signal; a transfer gate; a selector controller; a reset controller; a voltage readout end; a first 1T1R cell, a second 1T1R cell, and a third 1T1R cell connected to the voltage readout end; and a first current readout end, a second current readout end, and a third current readout end connected to the first 1T1R cell, the second 1T1R cell, and the third 1T1R cell respectively; a first total current readout end, a second total current readout end, and a third total current readout end, whose total current equals the sum of the currents of all current readout ends in each active pixel sensors.

Abstract: An image capture device may include a display for presenting controls. The controls may be used by a user to operate the image capture device in capturing visual content. A control customization interface may include interface feature(s) that enables selection of one or more selectable controls for inclusion in a set of controls. Based on user interaction with the control customization interface, the set of controls may be determined and presented on the display.

Abstract: A camera module includes a substrate, a number of sensors, and a film. The substrate defines a receiving cavity. The receiving cavity includes a bottom portion. The bottom portion defines an opening. The sensors are mounted around the opening. The film is attached to the substrate and covers the receiving cavity. The camera module defines a channel communicating with the receiving cavity.

Abstract: A system, method, and computer program product are provided for capturing digital images. In use, an ambient image comprising a plurality of ambient pixels and a flash image comprising a plurality of flash pixels is captured, via a camera module. Next, at least one de-noised pixel based on the ambient image is generated. Additionally, a resulting image is generated by combining the at least one de-noised pixel and a corresponding flash pixel. Additional systems, methods, and computer program products are also presented.

Abstract: A camera for detecting an object moved through a detection zone is provided that has an image sensor for recording image data, a reception optics having a focus adjustment unit for setting a focal position, a distance sensor for measuring a distance value from the object, and a control and evaluation unit connected to the distance sensor and the focus adjustment unit to set a focal position in dependence on the distance value, and to trigger a recording of image data at a focal position at which there is a focus deviation from a focal position that is ideal in accordance with the measured distance value, with the focus deviation remaining small enough for a required image definition of the image data.

Abstract: An image capturing apparatus comprises an image sensor, and a controller that controls the image sensor to shoot images for display at a first cycle and controls to shoot a still image in response to the image shooting instruction. In a case where continuous shooting of still images is instructed during shooting the images for display at the first cycle, the controller changes a cycle at which the images for display are shot to a second cycle which corresponds to an integer multiple of speed of the continuous shooting while e continuous shooting is performed, and controls the image sensor to shoot the still images at the speed of the continuous shooting and shoot the images for display at the second cycle.

Abstract: The image capturing apparatus includes a communication unit configured to perform wireless communication, and a shake detection unit including a sensor configured to detect shake of the image capturing apparatus. The communication unit and the shake detection unit are both disposed in a same accommodation area provided in the image capturing apparatus, the accommodation area being located away from an image capturing optical axis. In the accommodation area, at least one if the following conditions is satisfied: an image capturing optical axis-side surface of the communication unit is disposed at a position farther than an image capturing optical axis-side surface of the shake detection unit; and an image plane-side surface of the communication unit is disposed on an object side further from the image capturing optical axis than an image plane-side surface of the shake detection unit.

Abstract: A system and method for measuring and removing jitter from an optical sensor includes a jitter stabilization system and at least one focal plane array. The jitter stabilization system is positioned at a shared focus of the focal plane array, which can be generated by an optical imager. A jitter signal of the jitter stabilization system makes a double pass through the system, contacting every reflective surface along the optical path within the system, before returning to a position sensing detector (PSD).

Abstract: A system and method are provided for capturing a flash image based on ambient and flash metering. In use, a first ambient condition is metered for a first ambient frame. Next, a first ambient capture time is determined based on the metering of the first ambient condition. Further, a first flash condition is metered for a first flash frame, and a first flash capture time is determined based on the metering of the first flash condition. Next, a first ambient frame is captured based on the first ambient capture time. After capturing the first ambient frame, a flash circuit is enabled during an active period and, a first flash frame is captured based on a combination of the first ambient capture time and the first flash capture time. Finally, a final image is generated based on the first ambient frame and the first flash frame.

Abstract: This technology relates to an imaging apparatus and an imaging system for improving the accuracy of distance measurement performed by use of SPADs. The imaging apparatus includes a pixel array section having pixel sections arrayed therein. Each pixel section includes: an SPAD (single photon avalanche photodiode); a resistance component configured to be connected serially with the SPAD; an output section configured to output a light reception signal indicating photon incidence on the SPAD; and a pulse generation section configured to output a pulse signal in synchronism with the output of the light reception signal.

Abstract: An image capturing apparatus comprising an image sensor and a control circuit is disclosed. The control circuit changes, if a second drive period that is a drive period of the image sensor for still image shooting overlaps with a first drive period that is a drive period of the image sensor for moving image shooting, a start timing of the second drive period. When performing still image shooting while performing moving image shooting and moving image display: if the still image shooting is single image shooting or a first shot of continuous shooting, the control circuit does not change the start timing of the second drive period. If the still image shooting is a second shot onward of continuous shooting, the control circuit changes the start timing of the second drive period with giving priority to the moving image display.

Abstract: A computerized system comprising a processing unit and a memory, the system operating in connection with a real-time video conference stream containing a video of a user, wherein the memory embodies a set of computer-executable instructions, which cause the computerized system to perform a method involving: receiving the real time video conference stream containing the video of the user; detecting and separating the background in the received real time video conference stream from the user; and replacing the separated background with a background received from a system of a second user or with a pre-recorded background.