Boe Technology Group Co., Ltd.

Beijing Xiaomi Mobile Software Co., Ltd.

Beijing Boe Technology Development Co., Ltd.

Chongqing Boe Optoelectronics Technology Co., Ltd.

Space Engineering University

Loongson Technology Corporation Limited

Ge Zhang

Fan Yang

Yu Feng

Miao Wang

Feifei Li

Zhihui Xiao

Tao Jiao

Niannian Wang

Xianjun Pan

Weiwu Hu

Min Hu

Tianyu Sun

Jiuyang Li

Xuyu Wang

Peiyu Liang

Yongjing Ruan

Yukun Jia

Dalin Fan

Zongrui Feng

Provided are a method for maintaining Walker constellation formation and a terminal device. The method comprises: determining a first offset amount of each satellite within a simulation time period according to parameters of a Walker constellation; performing first offset on each satellite according to the first offset amount to obtain a Walker constellation after the first offset; determining a second offset amount of each satellite within the simulation time period according to parameters of the Walker constellation after the first offset; and superimposing the first offset amount and the second offset amount, and performing second offset on each satellite so as to maintain the formation of the Walker constellation.

Method for maintaining walker constellation formation and terminal device

An array substrate manufacturing method includes forming a plurality of first lead lines, a plurality of pixel electrodes, and a plurality of connecting lines over a substrate. Each first lead line is insulated from any pixel electrode, and each connecting line is insulated from any first lead line and is configured to electrically couple at least two pixel electrodes such that a set of pixel electrodes electrically coupled by each set of connecting lines substantially form an equivalent lead line. The method further includes detecting whether there is a short circuit between one equivalent lead line and a first lead line, and severing each of the plurality of connecting lines such that any two of the plurality of pixel electrodes are not electrically coupled.

Method for manufacturing array substrate, intermediate array substrate product, and array substrate

An antenna structure and an electronic device using the antenna structure are disclosed. The antenna structure includes: a feed point; and a metal frame. The metal frame includes a body, a radiator and a coupling branch. The radiator and the coupling branch are connected to the body, and enclose, together with the body, a clearance area. A first end of the radiator away from the body and an end of the coupling branch away from the body form an antenna gap connected to the clearance area. The radiator is connected to the feed point and includes a through groove and an opening, the through groove runs along a height direction of the radiator, and the opening is connected to the through groove along a thickness direction of the radiator. A junction of the feed point and the radiator and the opening are located at both sides of the through groove.

Antenna structure and electronic device

A display substrate includes: a base substrate including a photosensitive region, the photosensitive region including a plurality of display regions spaced apart and a gap region between the plurality of display regions; a first electrode layer on the base substrate; a light-emitting layer on a side of the first electrode layer away from the base substrate; and a second electrode layer on a side of the light-emitting layer away from the base substrate. Each display region corresponds to at least one first luminescent material region of the light-emitting layer; the gap region corresponds to the plurality of second luminescent material regions of the light-emitting layer; a part of the second electrode layer in the photosensitive region includes a plurality of second electrodes spaced apart, and an orthographic projection of each second electrode on the base substrate overlaps with each display region.

Display substrate, fabricating method thereof and display device

A multi-core processor and a frequency conversion device thereof as well as a method of communication between the cores are disclosed. Each processor core of the multi-core processor includes a frequency conversion device, which includes a multi-bit state changing means, a multiple selector, a frequency conversion coefficient register, a multi-input OR gate and a clock-gating circuit unit. A common original clock is sent to the frequency conversion device of each processor core at work. The frequency conversion device real-timely reads the value of the frequency conversion coefficient register of a corresponding processor core and receives data transmission valid signals from other processor cores. By gating the common original clock, a frequency conversion function of the processor core is completed. In the invention, the dynamic frequency conversion function of a multi-core processor is achieved, the frequency conversion coefficient control may be performed by each processor core independently, and a highly effective synchronous communication may be maintained between the processor cores, so as to reduce the overall running consumption of the processor and save power on different processor cores of the multi-core processor or on different IP modules in SOC.

Multi-core processor, its frequency conversion device and a method of data communication between the cores

Growing community of inventors

Beijing, China

Ge Zhang