Shenzhen Royole Technologies Co., Ltd.

Suteng Innovation Technology Co., Ltd.

Other

Huawei Technologies Co., Limited

Ji Wang

Cong Zhao

Hui Li

Jin Yang

Zhanchao Liu

Songshan Hou

He Li

Xin Chen

Wei Wei

Peng Zhang

Xinyuan Xia

Qi Lin

Liang Zhang

Songling Yang

Zihong Liu

Xiang Zou

Ying Li

Yong Chao Zhou

Bin Tan

Chao Jiang

Rui Xu

Yu Zhou

Jianlei Zhu

Peichen Xu

Chao Han

Hongliang Xie

Yijun Shi

Xiaopu Wang

Youxiang Ding

Jinhui Yang

Yimin Zhang

Jiawei Huang

Wuhua Deng

Xiaowu Wang

Yong Zhou

Liangfeng Zhang

Baoling Sheen

Wenwen Zhao

A lidar and a lidar adjustment method are provided. The lidar includes at least one transceiver component. The at least one transceiver component includes an emitting assembly, a beam splitting assembly, and a receiving assembly. The emitting assembly is configured to emit an outgoing light signal. The outgoing light signal is emitted, through the beam splitting assembly, towards a detection region and reflected by a target object to form a reflected light signal. The receiving assembly is configured to receive the reflected light signal after being deflected by the beam splitting assembly.

Lidar and adjustment method thereof

This application provides an optical device and a method of adjusting an optical device. The optical device includes an emitting assembly, a beam splitting assembly, and a receiving assembly. The emitting assembly is configured to emit an outgoing light signal. The beam splitting assembly is configured to pass the outgoing light signal from the emitting assembly to a detection region, receive a reflected light signal from the detection region, and modify a transmission direction of the reflected light signal. The receiving assembly is configured to receive the reflected light signal from the beam splitting assembly after the direction modification and generate an electrical signal in response to the reflected light signal.

Embodiments of the present disclosure provide an emission module and a mounting and adjustment method of the same, a LiDAR and a smart sensing device. An emission module includes an emission apparatus and a collimating element provided sequentially along an outgoing laser, where the emission apparatus is configured to generate the outgoing laser, and the collimating element is configured to collimate the outgoing laser generated by the emission apparatus and emit the outgoing laser; and the collimating element includes a fast-axis collimating element and a slow-axis collimating element provided sequentially along the outgoing laser, the fast-axis collimating element is configured to receive the outgoing laser generated by the emission apparatus and collimate the outgoing laser in a fast-axis direction, and the slow-axis collimating element is configured to receive the outgoing laser collimated in the fast-axis direction, collimate the outgoing laser in the slow-axis direction and emit the outgoing laser.

Emission module and mounting and adjustment method of the same, LiDAR and smart sensing device

This application provides an optical device, including an emitting assembly configured to emit an outgoing light signal, a beam splitting assembly configured to pass the outgoing light signal from the emitting assembly to a detection region, receive a reflected light signal from the detection region, and modify a transmission direction of the reflected light signal, a receiving assembly configured to receive the reflected light signal from the beam splitting assembly after the direction modification and generate an electrical signal in response to the reflected light signal. Also disclosed is a method of adjusting an optical device as described herein.

An apparatus in the field of optics technology, can include a reflector, a reflector substrate, and an extinction component. The reflector can be mounted on the reflector substrate. The extinction component can be arranged on a front surface of the reflector substrate. The reflector can be configured to reflect incident light signals. The extinction component can be configured to reduce the scattered light produced by the incident light signal on the reflector substrate. An optical scanning device (for example, lidar) having such features may greatly reduce the scattered light inside the lidar, reduce the detection blind area caused by the stray light, and greatly improve the receiving and detecting capabilities of the lidar.

Optical scanning apparatus and lidar with extinction component

Optical scanning apparatus and lidar

A terminal device includes a main body and a flexible touch panel. The main body includes a substrate, an earphone assembly, and a microphone assembly. The earphone assembly and the microphone assembly are respectively set on two opposite ends of the substrate. The flexible touch panel is on the substrate. The flexible touch panel is between the earphone assembly and the microphone assembly. The flexible touch panel is set on the substrate, to realize the touch and control function during using by a user. The whole substrate is thin, and the earphone assembly and the microphone assembly are set respectively on both ends of the substrate, communication may be realized simultaneously, the whole structural compactness of the terminal device may also be improved, and the whole thickness of the terminal device may be reduced.

Terminal device and electronic device

A lighting device includes a pedestal, a supporting column, a flexible touch panel, and a light source assembly. One end of the supporting column is connected to the pedestal, and the other end of the supporting column is connected to the light source assembly. The flexible touch panel is attached on an outside surface of the supporting column, the flexible touch panel is electrically connected with the light source assembly, and the flexible touch panel is operable to sense a touch action to control a luminous state of the light source assembly. The brightness, color temperature and the like of the luminous state of the light source assembly may be controlled by touching the flexible touch panel. The flexible touch panel is set on the supporting column for a user to touch and operate, which improves the user's operating experience.

Lighting device

A container includes a light source and an accommodating cavity. The container further includes a control component and a touch control panel arranged at a location of the accommodating cavity which is easy gripped. The control component is electrically coupled to the light source and the touch control panel. The control component controls the light source to emit light according to an external touch signal sensed by the touch control panel. The container employs the touch control panel as a sensing switch. Upon a user touching a side face of the container with a hand, the control component turns on the light source to emit light, and when the user's fingers leave the container, the control component controls the light source to be turned off.

Container with touch sensitive function

The present disclosure provides an electronic bag. The electronic bag includes a bag body equipped with a strap. The electronic bag further includes a display screen and a first touch panel which is configured to control the display screen to display different patterns. The display screen is arranged on an external surface of the bag body. The first touch panel is arranged on the strap. A method for controlling the electronic bag is also disclosed.

Electronic bag and method for controlling the same

This disclosure relates to display adjustment methods and head-mounted display devices. The head-mounted display device includes: first and second display modules; a first adjustment unit for triggering the first display module to enter a diopter adjustment mode and/or an interpupillary distance adjustment mode and for triggering the second display module to enter a non-adjustment mode; a confirmation unit for receiving a confirmation signal indicating that the first adjustment unit has completed the adjustment; a second adjustment unit for triggering the second display module to enter the diopter adjustment mode and/or the interpupillary distance adjustment mode and for triggering the first display module to enter the non-adjustment mode after the confirmation unit has received another confirmation signal. Independent display adjustment is achieved between the first and second display modules in the head-mounted display devices using the methods in this application, thereby providing an adjustment mode adapted for different user visions.

Display adjustment methods and head-mounted display devices

Vehicle control console

The invention discloses an LED driving circuit and a controlling method thereof, comprising a power switch and a current sampling unit, as well as a voltage comparison unit for comparing the voltage obtained by the current sampling unit with a first reference voltage; an input voltage sampling unit for converting the sampled input voltage into a current signal; a timing unit for controlling the off-time of the power switch or presetting a fixed off-time; a logical unit for controlling the power switch by means of a power switch driving unit and for controlling the timing switch in the timing unit. The method for controlling the LED driving circuit comprises the step of modulating the off-time of the power switch with the input voltage or the step of presetting a fixed off-time. The invention can be used in LED light cluster driving with the power factor greater than 0.95.

LED driving circuit and controlling method thereof

Growing community of inventors

Shenzhen, China

Ji Wang