Abstract: There is described an apparatus including a camera defining an azimuth axis. A swing supports the camera. The camera is rotatable relative to the swing about the azimuth axis. A yoke is rotatably coupled to the swing about a tilt axis. The swing is rotatable relative to the yoke about the tilt axis. A locking member attached to the swing is movable between a first position and a second position in which the locking member contacts the camera.

Abstract: Methods, devices, and computer program products for managing a dual camera mode (DCM) are provided. The method obtains primary image data for a scene in a first field of view (FOV) of a first digital camera unit (DCU) and image-related information indicative of an attribute of interest (AOI) associated with the primary image data. A DCM status is determined based on the AOI. A secondary data capture operation is implemented at a second DCU based on the DCM status determined. The second DCU includes a second FOV that is different than the first FOV. The secondary data capture operation obtains secondary image data. The method manages storage of the primary image data and the secondary image data.

Abstract: A method is described that includes, on an image processor having a two dimensional execution lane array and a two dimensional shift register array, repeatedly shifting first content of multiple rows or columns of the two dimensional shift register array and repeatedly executing at least one instruction between shifts that operates on the shifted first content and/or second content that is resident in respective locations of the two dimensional shift register array that the shifted first content has been shifted into.

Abstract: Disclosed are an electronic device and a method for generating a clock signal within a camera module. The electronic device includes a processor, and a camera module, wherein the camera module may include a clock generation circuit configured to generate a second clock signal, the second clock signal being independent from a first clock signal, the first clock signal being generated by the processor, an optical correction circuit configured to be driven based on the second clock signal, and an image sensor configured to be driven while being synchronized with the optical correction circuit based on the second clock signal, wherein the processor may be configured to transfer a control command to the camera module, based on an input for driving the camera module and to acquire at least one image through the synchronized optical correction circuit and image sensor based on the second clock signal.

Abstract: An imaging device includes: a light source emitting light based on a first pulse; a solid-state imaging element including pixel units and exposing the light based on a second pulse; and a signal processor. Each pixel unit includes a photoelectric converter and charge accumulating units, and generates first to third signal charges by first to third exposure processes in this order to be accumulated in the charge accumulating units. Each of the first and third exposure processes is based on the second pulse delayed from the first pulse by a first period, and the second exposure process is based on the second pulse delayed from the first pulse by a second period. A total period of the first and third exposure processes is equal to that of the second exposure process. The signal processor calculates a distance signal for each pixel unit by using the first to third signal charges.

Abstract: An imaging device is an imaging device in and from which a battery can be fitted, including a USB port and a body controller. The USB port can be connected to an external device via a USB cable and supply power to the imaging device from the external device. The body controller detects whether or not the battery has been removed from the imaging device while the power is being supplied from the external device to the imaging device in a case where the external device is a USB PD-compliant device, and according to the detection, the controller cuts off the power supply from the external device.

Abstract: A device for supporting a smartphone having a camera or supporting an action camera has a holder configured for supporting a smartphone having a camera or supporting an action camera, an extendable handle configured to be held by a user, and components for receiving audio signals from an audio signal source and reproducing the received audio signals in the vicinity of the handle.

Abstract: An image signal is received from a camera and a signal is received from each of a number of sensors. For each sensor, a position of a signal source is estimated based on the signal from the sensor. For each sensor, information on a situation expression expressing a situation is extracted based on the signal from the sensor. The situation expression for each sensor is superimposed on a captured image by the camera and the captured image superimposed with the situation expression for each sensor is output. In a case in which the sensors are located at different positions and the situation expression for each sensor overlap at least partially on the captured image, an overlapping order of the situation expressions for the sensors superimposed on the captured image is determined based on a distance between the camera and each sensor.

Abstract: A camera system with a complementary pixlet structure and a method of operating the same are provided. The camera system includes an image sensor that includes at least one 2×2 pixel block including a first pixel, a second pixel, and two third pixels—the two third pixels are disposed at positions diagonal to each other in the 2×2 pixel block and include deflected small pixlets, which are deflected in opposite directions to be symmetrical to each other with respect to each pixel center, and large pixlets adjacent to the deflected small pixlets, respectively, and each pixlet includes an photodiode converting an optical signal to an electrical signal and a depth calculator that receives images acquired from the deflected small pixlets of the two third pixels and calculates a depth between the image sensor and an object using a parallax between the images.

Abstract: An image-capturing apparatus includes a controller configured to perform tilt control in which an image sensor is tilted about a rotation axis with respect to a plane orthogonal to an optical axis of an image-capturing optical system, a focus position determiner configured to determine a position of a focus lens, a first area detector configured to detect a first area corresponding to the rotation axis in a captured image, and a second area detector configured to detect a second area which is an area to be focused by the tilt control, wherein the focus position determiner determines a third area in which the first area and the second area overlap as a focus position before the tilt control, and wherein the controller performs the tilt control after the position of the focus lens is adjusted so that the third area is in focus.

Abstract: An electronic device includes an image sensor including a first pixel subset with a first sensitivity and a second pixel subset having with a second sensitivity, and a processor to process image data generated through the image sensor. The processor obtains image data through each of the first pixel subset and the second pixel subset, select at least one sub-image data based at least on the attribute information of the first sub-image data and the second sub-image data of the image data, and obtain focus information corresponding to the external subject using the selected sub-image data.

Abstract: The present disclosure relates to a solid-state image pickup device, a manufacturing method, and an electronic apparatus, which can obtain high charge transfer efficiency from a photoelectric conversion unit to a floating diffusion layer. The floating diffusion layer is arranged in a rectangular shape so as to surround a gate electrode of a vertical transistor whose groove portion is rectangular. A reset drain is formed so as to be adjacent to the floating diffusion layer through a reset gate. A potential of the floating diffusion layer is reset to the same potential as that of the reset drain by applying a predetermined voltage to the reset gate. It is possible to apply the present disclosure to, for example, a CMOS solid-state image pickup device used in an image pickup device such as a camera.

Abstract: A method for correcting rolling shutter (RS) effects is presented. The method includes generating a plurality of images from a camera, synthesizing RS images from global shutter (GS) counterparts to generate training data to train the structure-and-motion-aware convolutional neural network (CNN), and predicting an RS camera motion and an RS depth map from a single RS image by employing a structure-and-motion-aware CNN to remove RS distortions from the single RS image.

Abstract: A system includes a lens mount defining an inner bore that includes inward facing threads for engaging a lens component, with a lens opening at one end of the lens mount. The lens mount includes outward facing threads for engaging a camera housing. A first seal ring is included inside the inner bore for sealing against the lens component. A second seal ring is included on an outside of the lens mount for sealing against the camera housing.

Abstract: Disclosed are an image processing apparatus including a deserializer receiving respective Bayer image information pieces acquired from a plurality of cameras; and an image processor processing Bayer data processed and output by the deserializer to produce one stitched image from a plurality of Bayer images acquired from the plurality of cameras, wherein the one stitched image is output.

Abstract: Provided are a camera module, a molding photosensitive assembly and manufacturing method thereof, and an electronic device. The molding photosensitive assembly comprises a molding portion, at least one photosensitive chip and at least one circuit board, wherein the photosensitive chip is provided on the circuit board, the molding portion comprises a molding portion main body, the molding portion main body is made of a transparent material, and the molding portion main body, the photosensitive chip and the circuit board form an integral structure by means of a molding technique, so as to facilitate production.

Abstract: An anamorphic optical assembly includes a housing defining an anamorphic aperture, a hood, an optional sleeve, a bayonet coupling interface, and a catch mechanism. The bayonet coupling interface is configured for coupling the anamorphic optical assembly to a lens attachment interface that is coupled to or integral with the mobile electronic device or a protective case coupled thereto.

Abstract: A photographing control device capable of storing images to be stored at appropriate timings is provided. The analysis result acquiring unit acquires an analysis result of an image obtained by photographing an object by the photographing device. The status acquisition unit acquires a detection result obtained by detecting the status of the object by the sensor. The index determination unit determines the degree of these indexes for each of a plurality of indexes including those relating to the object based on the image analysis result and the detection result of the state of the object. The evaluation value calculation unit calculates an evaluation value for evaluating the stored value of the image using the degree of the index. When the evaluation value exceeds a predetermined threshold value, the image storage control unit 15 controls so as to store an image.

Abstract: A camera arrangement comprises an optics unit and a sensor board with an image sensor attached to a first surface of the sensor board facing the optics unit. An alignment element formed by a thermoplastic material is fixedly attached to the optics unit, and a biasing element is configured to bias the alignment element into abutment with a contact area of the sensor board. A heating element is arranged in the contact area. Upon activation the heating element is configured to transfer heat to the alignment element, such that the alignment element is heated at least partly to a temperature of at least the glass transition temperature of the thermoplastic material, for enabling alignment of the sensor board relative the optics unit.

Abstract: An interchangeable lens is connected to a camera body through an adapter apparatus. The adapter apparatus can communicate with the interchangeable lens through a plurality of communication methods and includes a communication unit configured to control the communication with the lens apparatus, and a setting unit configured to switch a communication setting in the adapter apparatus between a first setting and a second setting. The first setting is compliant with a first communication method as a communication method in an initial communication to be performed at a start-up of the interchangeable lens, and the second setting is compliant with a second communication method different from the first communication method. When the second setting is set as the communication setting, the adapter apparatus sets the first setting as the communication setting and transmits a signal for switching a power state to the interchangeable lens through the first communication method.