Abstract: A remote control unit for controlling a motion picture camera comprises a grip section at a first side for holding the remote control unit, an extension section at a second side and a display section extending from the grip section to the second side. The display section comprises a display at a front side thereof, which is oriented orthogonal to a viewing axis. The extension section projects away from the display section. The extension section comprises an operating side facing away from the grip section, at which side a rotatable operating element for setting control commands is arranged.

Abstract: An image sensor device has a first number of first pixels disposed in a substrate and a second number of second pixels disposed in the substrate. The first number is substantially equal to the second number. A light-blocking structure disposed over the first pixels and the second pixels. The light-blocking structure defines a plurality of first openings and second openings through which light can pass. The first openings are disposed over the first pixels. The second openings are disposed over the second pixels. The second openings are smaller than the first openings. A microcontroller is configured to turn on different ones of the second pixels at different points in time.

Abstract: The solid-state imaging element includes a photoelectric converter, a first separator, and a second separator. The photoelectric converter is configured to perform photoelectric conversion of incident light. The first separator configured to separate the photoelectric converter is formed in a first trench formed from a first surface side. The second separator configured to separate the photoelectric converter is formed in a second trench formed from a second surface side facing a first surface. The present technology is applicable to an individual imaging element mounted on, e.g., a camera and configured to acquire an image of an object.

Abstract: Provided is an information processing device coupled to a device which a user operates with a hand of the user and on the surface of which a plurality of sensors that each output information associated with a spatial positional relation with the surface of the hand of the user are arranged, the information processing device being configured to receive output from each of the sensors included in the device and generate an image in which an image element having been drawn with a pixel value determined on the basis of a value represented by the output from each of the sensors is arranged at a position corresponding to a position at which each of the sensors is arranged, on a mapping space obtained by plane-unfolding a portion that constitutes the surface of the device and on which the sensors are arranged, Further, the information processing device is configured to, upon receipt of input of the generated image, estimate information associated with the position of each of joints of the hand of the user who operat

Abstract: To reduce increased consumption of the recording capacity of a recording medium to record generated image data, an imaging device includes an imaging element and an image processor that receive subject light through an opening in a housing and generate image data, a recording controller that records the image data generated by the imaging processor onto a memory card, a lens cover movable to a position at which the lens cover covers the opening to restrict the subject light from entering the imaging element, and a determiner that detects a position of the lens cover based on the image data generated by the imaging processor and determines whether the lens cover covers the opening. The recording controller stops recording the image data onto the memory card when the determiner determines that the lens cover covers the opening.

Abstract: The present disclosure relates to an integrated chip structure including a MEMS actuator. The MEMS actuator includes an anchor having a first plurality of branches extending outward from a central region of the anchor. The first plurality of branches respectively include a first plurality of fingers. A proof mass surrounds the anchor and includes a second plurality of branches extending inward from an interior sidewall of the proof mass. The second plurality of branches respectively include a second plurality of fingers interleaved with the first plurality of fingers as viewed in a top-view. One or more curved cantilevers are coupled between the proof mass and a frame wrapping around the proof mass. The one or more curved cantilevers have curved outer surfaces having one or more inflection points as viewed in the top-view.

Abstract: Some embodiments provide a Quanta Image Sensor (QIS) comprising 3D vertically-stacked photosensor array and readout circuitry. In some embodiments, an imaging array comprises a plurality of single-bit or multi-bit jots, and readout circuitry in electrical communication with the imaging array and configured to quantize, for each jot, an analog signal corresponding to the electrical signal of the jot, wherein the imaging system is configured as a 3D vertically integrated circuit with the imaging array stacked vertically above the readout circuitry. The imaging array may be configured as an array of clusters with respect to the readout circuitry, each cluster configured as an array of n by m jots. The imaging array may include a further image processing circuitry layer disposed below the readout circuitry layer. Neighboring layers may be implemented on separate substrates and/or in a common substrate.

Abstract: An image acquisition apparatus includes a first image sensor configured to obtain a first image based on detection of a light of a first wavelength band; a second image sensor configured to obtain a second image based on detection of a light of a second wavelength band that is wider than the first wavelength band; and a processor configured to obtain a third image having a spatial resolution corresponding to the first image and a color gamut corresponding to the second image based on the first image and the second image. The image acquisition apparatus may provide an image with a high spatial resolution and a wide color gamut.

Abstract: The disclosed technology relates to an electronic device including a display device and an image sensor. The device may include a processor configured to cause the display device to output an illumination image in response to a command to capture one or more digital images of a scene. The processor can also be configured to cause the image sensor to receive the one or more digital images of the scene while the illumination image is displayed.

Abstract: An example electronic device includes a camera module, a display, and a processor. The processor is configured to: obtain a magnification input corresponding to a first magnification; acquire first image data corresponding to a second magnification, which is different from the first magnification, from among image data obtained by an image sensor of a first camera module, based on the obtaining of the magnification input; determine second image data corresponding to at least a part of the acquired first image data; perform shaking correction on the generated second image data; and display a preview image having the first magnification on the display, based on the second image data.

Abstract: An image sensor includes a plurality of pixels. Each pixel includes a photoelectric conversion portion, a reset gate for controlling removal of a charge accumulated in the photoelectric conversion portion, a charge accumulation portion, an accumulation gate for controlling a transfer of the charge from the photoelectric conversion portion to the charge accumulation portion, and a readout gate for controlling readout of the charge from the charge accumulation portion. The reset gate removes the charge generated in the photoelectric conversion portion by excitation light. The accumulation gate transfers the charge generated in the photoelectric conversion portion by fluorescence to the charge accumulation portion. The readout gate performs control for reading out the charge after the charge transfer is performed n times. The number n of the charge transfers is set for each pixel.

Abstract: Embodiments of the present disclosure relate to image stabilization technology, and provide an image stabilization method and apparatus, a terminal, and a storage medium. The method is applied in a terminal equipped with at least two camera modules corresponding to different focal length ranges. The method includes: obtaining a first image outputted from a first camera module of the at least two camera modules and a second image outputted from a second camera module of the at least two camera modules; processing, in a zooming process, the first image and the second image in a predetermined processing scheme to obtain a target image, the predetermined processing scheme including an electric image stabilization process and a zooming process, the zooming process being a process of switching from the first camera module to the second camera module; and displaying the target image on a viewfinder screen.

Abstract: According to certain embodiments of the disclosure, an electronic device may include a housing, a window frame disposed in the housing and providing at least one opening exposing an inside of the housing to an outside of the housing, at least one window coupled to the window frame to close the at least one opening, and at least one optical module disposed inside the housing and configured to receive external light incident through the at least one window. The at least one window may include an inner surface facing the inside of the housing, a side surface facing an inner wall of the at least one opening, and a first inclined surface connecting the side surface to the inner surface. The first inclined surface may be inclined with respect to the inner surface and the side surface and may be bonded to the inner wall. Other various embodiments are possible as well.

Abstract: A cellular telephone comprising a flat monitor screen that tilts and maneuvers in a 360° degree rotation while remaining within the inner frame/body of said cellular telephone or while in the course of protracting outward extending from with the inner body of said cellular telephone or while in the course of retracting inward back inside the inner body of said cellular telephone. One embodiment of said cellular telephone comprises a flat monitor screen camera that tilts and maneuvers in synchronization with said cellular telephone monitor screen in a 360° degree rotation while remaining within the frame/body of said cellular telephone or while in the course of protracting extending outwards extending from within the inner body of said cellular telephone. Another embodiment of said cellular telephone comprising a flat speaker/transmitter button that protracts outward ‘creating’ a (four) level speaker/transmitter pyramid that also retracts inward reverting back to its original origin.

Abstract: An image processing pipeline including a still or video camera includes a first neural network arranged to process and provide a neural network based result for at least one of an image capture setting, sensor processing, global post processing, local post processing, and portfolio post processing. A second neural network is arranged to receive the neural network result and further provide at least one of an image capture setting, sensor processing, global post processing, local post processing, and portfolio post processing, wherein at least one of the first and second neural networks generate data on local processors supported by the still or video camera.

Abstract: The embodiments are a zoom method and apparatus, an unmanned aerial vehicle, an unmanned aircraft system and a storage medium. The zoom method is applied to an unmanned aerial vehicle including an image capturing apparatus and the method includes: controlling the image capturing apparatus to capture an initial image, where a resolution of the initial image is W0*H0 and an area of the initial image is S0; obtaining a cropped image according to the initial image, where the cropped image is an image with an area of S cropped from a preset region in the initial image, S0/S=C and C is a digital zoom factor of the image capturing apparatus; and obtaining a zoom image according to the cropped image, where the zoom image is an image obtained by zooming the cropped image by C/A times, a resolution of the zoom image is W1*H1, A=W0/W1 and C?A.

Abstract: A circuit board includes a flexible circuit board layer, a rigid circuit board layer, a chip connection portion, and a bending portion. The chip connection portion includes at least part of the flexible circuit board layer and at least part of the rigid circuit board layer overlapping the flexible circuit board layer. The bending portion includes at least part of the flexible circuit board layer and at least part of the rigid circuit board layer overlapping the flexible circuit board layer. The bending portion is connected to the chip connection portion in an invertible manner, after the bending portion is inverted to the rear side of the chip connection portion, a part of the flexible circuit board layer of the bending portion and a part of the flexible circuit board layer of the chip connection portion are arranged face-to-face.

Abstract: One embodiment of a camera module may comprise: a lens barrel provided with at least one lens; a holder to which the lens barrel is coupled; a printed circuit board coupled on the bottom of the holder to face the lens; an adhering portion coupling the holder and the printed circuit board; an opening portion opening a portion of a first space formed through the coupling of the printed circuit board and the holder; and a housing coupled with the holder, wherein a second space separated from the first space may be formed through the coupling of the holder and the housing, and the opening portion may communicate the first space with the second space.

Abstract: A coil member according to an embodiment comprises: a substrate having a top surface and a bottom surface opposite the top surface; a first coil electrode disposed on the top surface of the substrate and including a first pattern electrode; and a second coil electrode disposed on the bottom surface of the substrate and including a second pattern electrode. The first coil electrode includes: a first outermost pattern electrode; a first innermost pattern electrode; and a central pattern electrode between the first outermost pattern electrode and the first innermost pattern electrode, wherein the line width of at least one of the first outermost pattern electrode or the first innermost pattern electrode is greater than the line width of the central pattern electrode.

Abstract: A method for designing an optical system for providing reliable, robust and successful realization of a distortion variation function is presented. In a preferred embodiment, the proposed distortion variation optical system includes at least two non-symmetrical elements, which are moving in the transverse direction. The proposed freeform lens contains two transmissive refractive surfaces. The freeform elements designed with this method have preferably a flat surface and a non-symmetrical freeform surface. The two plano-surfaces are preferably made to face each other, so that a miniature camera can be offered. The value of the non-symmetrical freeform surface is used to produce variable optical power when the two freeform elements undergo a relative movement in the vertical direction. Using this method, an optical system with an active distortion, smaller form factor, and better imaging quality can be obtained.