Guangdong Oppo Mobile Telecommunications Corp., Ltd.

Yi Wei

Yong Li

Xueyong Zhang

Yong Min Li

Qiqun Zhou

Jiawei Chen

Haiyu Zhang

Peiju Chen

Yong Qin

Baicheng Zhang

Jiyan Wu

Aixiang Yu

Mozhou Lin

Jiajun Liang

Zhong Xie

A camera module and a mobile terminal are provided. The camera module includes a lens assembly, a light guide member and a light source, the light guide member is of an annular structure, and the light guide member is sleeved on an outer peripheral side of the lens assembly; and light emitted from the light source is incident in the light guide member through the outer peripheral side of the light guide member and is emitted out through a light emitting surface of the light guide member, and the light emitting surface faces toward an object side of the lens assembly. The camera module and the mobile terminal have sufficient and uniform illumination supplementation.

Camera module with annular light guide member and mobile terminal

An imaging module, including a substrate, a sensor assembly, a lens assembly and an adjustable lens assembly. The sensor assembly is arranged on the substrate and is configured to receive light passing through the adjustable lens assembly and the lens assembly. The adjustable lens assembly includes a piezoelectric actuator and an adjustable lens, and the piezoelectric actuator is configured to deform the adjustable lens through the action of an electrical signal and change a focal length of the imaging module.

Imaging module and electronic apparatus

The present disclosure provides a method for controlling a laser projection module, a device for controlling a laser projection module, a depth camera and an electronic device. The laser projection module includes a laser emitter. The laser emitter includes a plurality of point light sources. The plurality of point light sources are grouped to form a plurality of light-emitting arrays, and the plurality of the light-emitting arrays are controlled independently. The method includes: obtaining a current distance between the laser projection module and the user; determining a target number of the light-emitting arrays from the plurality of light-emitting arrays according to the current distance; and activating point light sources in a target number of point light sources of the light-emitting arrays.

Control method, depth camera and electronic device

A laser projection unit, a depth camera and an electronic device are provided. The laser projection unit includes a light source, a collimation element and a diffractive optical element. The light source is configured to emit laser. The collimation element is configured to collimate the laser. The collimation element includes one or a plurality of lenses provided in a light emitting path of the light source. The diffractive optical element is configured to diffract the laser collimated by the diffractive collimation element to form a laser pattern.

Laser projection unit, depth camera and electronic device

A camera module includes a fixed member, a movable member, a lens unit and a driving member. A top surface of the fixed member is provided with a through hole, and is a step surface and includes first and second sub-top-surfaces mutually connected, and the first sub-top-surface is inclined with respect to the second sub-top-surface and defines a notch together with the second sub-top-surface. The movable member is accommodated in the fixed member and corresponds to the through hole. The lens unit is accommodated in the movable member and corresponds to the through hole. The driving member is provided in the fixed member and located at a side of the fixed member away from the notch, and configured to drive the movable member to lead the lens unit to move along an optical axis of the lens unit. The present disclosure further discloses an electronic device.

Camera module and electronic device

An image synthesis method for a mobile terminal and the mobile terminal are provided. The method includes: performing a phase focusing on an object to be photographed based on a preset pixel of a photosensitive element in the mobile terminal when a user photographs the object to be photographed with the mobile terminal; controlling the photosensitive element to generate a displacement at an initial location to replace the preset pixel by an original pixel, and obtaining a replaced pixel; collecting first photosensitive data of the object to be photographed based on the replaced pixel, and controlling the photosensitive element to return to the initial location; photographing the object to be photographed, and enabling the photosensitive element to collect second photosensitive data of the object to be photographed at the initial location; and synthesizing an image of the object to be photographed according to the first and second photosensitive data.

Image synthesis method and apparatus for mobile terminal, and mobile terminal

Disclosed is a camera device, comprising a mounting member and support member used for mounting a camera; the mounting member is rotationally connected to the support member, and the rotational axis of the mounting member is perpendicular to the axial direction of the camera; the mounting member is provided with magnetic body, at the magnetic body side located on the rotational axis of the mounting member, the direction of the magnetic poles of the magnetic body is parallel to the axial direction of the camera; the support member is provided with an electromagnet, and the axial direction of the electromagnet is perpendicular to the rotational axis of the mounting member; the magnetic body is located at the end of the electromagnet that is in the axial direction.

Camera device and terminal having same

An optical image stabilization system, an imaging device, and an electronic device are provided. The optical image stabilization system includes a micro electro-mechanical system (MEMS), and an image sensor. The MEMS includes a fixed electrode, a movable electrode, and a deformable connection member. The movable electrode cooperates with the fixed electrode. The deformable connection member is configured to fixedly connect the fixed electrode with the movable electrode. The image sensor is fixedly connected to the movable electrode. The fixed electrode and the movable electrode are configured to generate an electrostatic force under a driving voltage. The deformable connection member is configured to deform under the electrostatic force in a direction where the movable electrode moves, to make the movable electrode move, so as to drive the image sensor to move.

Optical image stabilization system, imaging device, and electronic device

A housing assembly includes: a support including a peripheral side wall and a lug, the peripheral side wall defining a first accommodating space configured to accommodate a dual-camera assembly, and the lug being connected to an outer peripheral side of the peripheral side wall away from the first accommodating space; and a middle frame having a second accommodating space and a groove in communication with the second accommodating space, the support being accommodated in the second accommodating space, and the lug being fitted with the groove. The present disclosure further provides a dual-camera module and a mobile terminal.

Housing assembly, dual-camera module and mobile terminal

A control method for controlling an electronic apparatus includes controlling an image sensor to output a merged image and a color block image of a same scene; defining a first predetermined region using the merged image based on a user input; converting the color block image into a first imitating image and converting the merged image into a restored image, wherein a second predetermined region in the color block image is converted using a first interpolating method, and the second predetermined region corresponds to the first predetermined region, and wherein a third predetermined region in the merged image is converted using a second interpolating method, and the third predetermined region corresponds to a first region outside the first predetermined region; obtaining a second imitating image by synthesizing the first imitating image and the restored image. An electronic apparatus is also provided.

Control method and electronic apparatus

A dual-camera focusing method and apparatus, and a terminal device are provided. A dual camera includes a first camera and a second camera. A resolution of the first camera is higher than a resolution of the second camera. The method includes the following operations. The second camera is used for focusing. When the second camera is in focus, a second driving current value of a motor of the second camera is obtained. With the first camera and the second camera having a same in-focus distance, a first driving current value of a motor of the first camera is determined according to the second driving current value. The first driving current value is used to focus the first camera.

Dual-camera focusing method and apparatus, and terminal device

An image processing method and apparatus, a control method are provided. A part of the color-block image within the fixed region is converted into a first image using a first interpolation algorithm. The first image includes first simulation pixels arranged in an array. A part of the color-block image beyond the fixed region is converted into a second image using a second interpolation algorithm. The second image includes second simulation pixels arranged in an array, and a complexity of the second interpolation algorithm is less than that of the first interpolation algorithm. The first image and the second image are merged into a simulation image corresponding to the color-block image. With the image processing method, by processing different parts of the image respectively with the first interpolation algorithm and the second, the time for processing the image is reduced while the image quality is improved, thus improving the user satisfaction.

Image processing method and apparatus, electronic device and control method

An image processing method is provided. The image processing method is configured to process the color-block image output by the image sensor. The brightness area is identified in the color-block image. A first part of the color-block image within the brightness area is converted into a first image using a first interpolation algorithm. The second part of the color-block image beyond the brightness area is converted into a second image using a second interpolation algorithm. The first image and the second image are merged to generate a simulation image corresponding to the color-block image. Moreover, an image processing apparatus and an electronic device are provided.

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Dongguan, China

Yi Wei