Abstract: A light emitting device and an image capturing device using the light emitting device. The light emitting device includes a light emitting element, a digital micro mirror (DMD), a reflecting prism, and a housing. The light from the light emitting element is modulated by the DMD into structured light. The reflecting prism is on an optical path of the source light. The reflecting prism guides the source light to the DMD. The housing defines a receiving cavity. The light emitting element, the reflecting prism, and the DMD are received in the receiving cavity. The housing defines a light exit opening, the structured light exits from the light exit opening.

Abstract: A target object identification method includes acquiring an image to be identified, identifying at least one target area in the image and marking the target area to obtain at least one marked area, performing binarization processing on the marked area, identifying the boundary pixels and effective pixels of the target area in the marked area, and determining a center and a size of the target area according to a position of the boundary pixels and the effective pixels. An area of the marked area is greater than or equal to an area of the target area. The target area is located within the marked area. A color of pixels of the target area after the binarization process is different from a color of pixels outside the target area.

Abstract: A projection device includes a first lens component, a second lens component, a first reflecting sheet embedded in the first lens component, a second reflecting sheet embedded in the second lens component, a light source opposite to the first reflecting sheet, a diffractive optical element opposite to the second reflecting sheet, and a rotating subassembly. The first lens component and the second lens component are not integral. The second reflecting sheet is opposite to the first reflecting sheet. The rotating subassembly can drive the second lens component to rotate relative to the first lens component. The projection device can realize multi-directional projection of images.

Abstract: A camera module includes a base, a circuit board bearing the base, and a metal plate bearing the circuit board and the base. The base includes a receiving portion and a bearing portion. The bearing portion surrounds the receiving portion. The bearing portion defines a cutout to receive an electronic component of the circuit board.

Abstract: A device to test image-capturing abilities of photosensitive components includes a movable assembly and a fixing assembly. The movable assembly includes a first wireless transmission module. The fixing assembly comprises a second wireless transmission module. The second wireless transmission module is wirelessly connected to the first wireless transmission module avoiding wire entanglement or winding as the movable assembly is rotated. The first wireless transmission module receives image signals from a camera module and wirelessly sends the image signals to the second wireless transmission module.

Abstract: The present disclosure provides a double-sided two-dimensional coding, includes a transparent medium layer on which a metal layer is plated, and a two-dimensional coding image is fused through the metal layer. The present disclosure also provides a flexible printed circuit and manufacturing method for a double-sided two-dimensional coding. By lasering the metal layer corresponding to the transparent medium layer, the metal layer is fused through to form a two-dimensional coding image, and the transparent medium layer is retained as a carrier of the two-dimensional coding image, and an effect of reading the two-dimensional coding on both sides can be achieved.

Abstract: A method for calibrating a depth of a 3D camera includes selecting a calibration plane and obtaining a first depth image of the calibration plane using a 3D camera when a distance between the 3D camera and a calibration plane is a standard distance. A first depth image, represented by a first phase values of pixel points, is obtained. Then obtaining a second depth image of the calibration plane using the 3D camera when a distance is a testing distance, and intercepting the phase values of the pixel points of the two-dimensional image region and deleting the phase values of the pixel points of the non two-dimensional image region in the second depth image. Calculating and outputting predicted phase values of pixel points in the non two-dimensional image region of the second depth image and calibrating the second depth image.

Abstract: A panoramic camera includes a casing, at least two independent camera units fixed on the casing, a first image processor electrically connected to each image sensor, and a device to sense level of ambient light. The camera units acquire images captured by each of the camera units and can stitch the images together to form a panoramic image. A second image processor is electrically connected to the first image processor, the second image processor obtains the panoramic image from the first image processor and by training or deep learning can focus on and zoom into a region of particular interest (ROPI) in the panoramic image. The ROPI can be edited and clipped out and the clipped images can be synthesized to form close-up images of the ROPI.

Abstract: A method of inspecting and controlling applied to a process of a testing a camera for correct color temperature in image-capturing includes: obtaining a first device identifier of light sources; obtaining a second device identifier of control devices; wherein each control device governs the opening or closing of a light source; associating the first device identifiers with each second device identifier, and generating a binding list; obtaining the second device identifier corresponding to a camera device; comparing the second device identifier corresponding to the camera device with the binding list, and recording the corresponding first device identifiers; wherein the camera device takes pictures under the light source corresponding to the first device identifiers to obtain image for analysis and analyzing whether image-capturing function of the camera is normal. A computer device and a storage medium for performing the above-described method are also disclosed.

Abstract: A lens module includes a circuit board, a carrier, and an optical filter. The carrier is fixed on a surface of the circuit board. The carrier defines a through hole. The optical filter is mounted on the carrier. The carrier defines at least one gas escape structure. A receiving space is between the optical filter and the circuit board, and the gas escape structure communicates with the receiving space to release water vapor in the receiving space and allow air pressure equalization and thus the relief of stress. The disclosure further provides an electronic device including the lens module.

Abstract: A voice coil motor includes a base, a housing, a lower-resilient member, a lens frame, a coil, a magnet, an upper-resilient member, an upper cover plate, and a pin arranged on the base. The lower-resilient member, the lens frame, the coil, the magnet, the upper-resilient member, and the upper cover plate are arranged in sequence between the base and the housing. The lens frame and the coil are integrally formed. The coil surrounds an outer surface of the lens frame.

Abstract: A lens module with enhanced absorption of stray light includes a sensor and a mounting bracket. The sensor includes a photosensitive area and a non-photosensitive area arranged surrounding the photosensitive area. The sensor is received in the mounting bracket and a window is defined in the mounting bracket. An annular flange extends from an inner wall of the window towards a center axis of the window. The annular flange includes a reflecting surface facing away from the inner wall of the window and tilted towards the sensor. The photosensitive area is exposed in a through hole of the annular flange. Diffusing reflection structures are formed on the reflecting surface and are configured to diffuse light incident on the non-photosensitive area away from the photosensitive area.

Abstract: A single camera module able to swivel to capture images in front of and behind an electronic device includes a housing, a camera module, and a turnover element. The turnover element includes a support plate and a connecting portion. The housing is arranged on the support plate, thus forming a receiving space together with the support plate. The camera assembly is received in the receiving space. The connecting portion is arranged on the support plate and located on an outside of the housing. The disclosure further provides an electronic device including the camera module.

Abstract: A camera includes a bracket, a lens base, a lens, a filter, a circuit board, and a photosensitive, chip. The bracket defines a first receiving space, a second receiving space, and a through hole. The through hole is in communication with the first receiving space and the second receiving space. The lens is mounted on the lens base. The filter is received within the first receiving space. The circuit board is mounted on the side of the bracket defining the second receiving space. The photosensitive chip mounted on the circuit board faces the through hole. The bracket includes a heating member and two conductive circuits. The filter is mounted on the heating member such that a periphery of the filter is in contact with the heating member. Each of the two conductive circuit layers is electrically coupled between the heating member and the circuit board to heat the filter.

Abstract: A non-contact measuring device for measuring dimensions of an object using processed light beams from a laser includes a laser source, an attenuator, a lens group, a stage, a charge-coupled device (CCD), and a processor. The stage supports and rotates a measurable object and the light beams passing through or reflected by the object are collected by pixels of the CCD, enabling calculations of the dimensions of the object by the processor.

Abstract: An imaging device proofed against ghosting and flaring in captured images includes a lens barrel and a lens module received in the lens barrel. The lens barrel comprises an inner surface and a supporting portion extending radially from the inner wall surface. The supporting portion has through hole for light entry, the through hole comprises a reflecting surface, the supporting portion comprises a top surface and a bottom surface, the reflecting surface connects the top surface and the bottom surface, and a plurality of light-scattering structures are formed on the reflecting surface.

Abstract: A device with two cameras utilizing one photosensitive assembly includes a first camera assembly, a second camera assembly, and the photosensitive assembly. The first camera assembly and the second camera assembly are symmetrically positioned at both sides of the photosensitive assembly. The photosensitive assembly includes a driver and a connected photosensitive chip, the driver can drive the photosensitive chip to rotate, so that a photosensitive surface of the photosensitive chip is rotated between the first camera assembly and the second camera assembly. Therefore, the first camera assembly and the second camera assembly of the camera device are able to share one photosensitive chip, thereby the overall size and cost of the camera device is reduced. The present application also provides a mobile terminal having the camera device.

Abstract: A lens module with physically stronger foundations and enhanced stability includes a circuit board, an image sensor thereon, a mounting bracket, an optical filter, and a lens unit. The mounting bracket on the circuit board has the image sensor. The optical filter on the mounting bracket is above the image sensor. The lens unit is connected to the mounting bracket facing away from the circuit board by a frame of adhesive. The surface of the mounting bracket facing away from the circuit board has positioning posts at corners of the surface of the mounting bracket. A surface of the lens unit connected to the mounting bracket has receiving grooves positioned at corners of the surface of the lens unit. The positioning posts are inserted into the receiving grooves.

Abstract: A camera device includes a lens assembly, a driver, and a photosensitive assembly. The driver drives the lens assembly. The photosensitive assembly is mounted to the lens assembly. The photosensitive assembly includes a filter, a photosensitive chip, a first circuit board, and a second circuit board. The first circuit board defines a first through hole. The photosensitive chip is received in the first through hole. The filter is fixed to a side of the first circuit board and covers the first through hole. The second circuit board is fixed to a side of the first circuit board facing away from the filter and is electrically coupled to the first circuit board. The photosensitive chip is electrically coupled to the second circuit board.

Abstract: A lens module includes a first circuit board, a second circuit board, an image sensor, a signal line, a mounting bracket, a filter, and a lens unit. The first circuit board defines a first through hole. The second circuit board is coupled to the first circuit board. The second circuit board defines a second through hole aligned with the first through hole. A width of the first through hole is larger than a width of the second through hole. The image sensor is received in the second through hole. The signal line couples the image sensor to the second circuit board. The mounting bracket is disposed on a side of the first circuit board facing away from the second circuit board. The filter is disposed on the mounting bracket. The lens unit is disposed on the mounting bracket.