Other

Changxin Memory Technologies, Inc.

Anhui University

Midea Group Co., Ltd.

Hefei Midea Refrigerator Co., Ltd.

Wei Yang

Bo Liu

Zhixiang Huang

Qing Shuang Li

Wei Zhang

Chao Wang

Ming Lu

Xiuhua Geng

Kai Nang Pang

Ming Fang

Furong Liu

Ke Xu

Zhongbin Lv

Jian Feng

Yupeng Zhang

Xuesong Deng

Bo Zhang

Yihao Li

Donghua Zhou

Shujie Zhao

Kai Xie

Mengli Li

Wenjun Ai

Gaoli Song

Huiping Wang

Pengliang Ren

Jianhua Yong

Yingbiao Shao

Zhenshan Guan

Zehui Liu

Yang Shi

Xiaoshi Kou

Yinhao Bai

Jianlin Wei

Xiaohui Yang

Longyuan Chen

Fang Tian

Provided is an electromagnetic field simulation method based on a face-centered cubic and a subgrid, including setting periodic boundary conditions and a metal plate to construct an electromagnetic field simulation model based on the face-centered cubic, FDTD and the subgrid; through the electromagnetic field simulation model, setting the source point in the subgrid region, selecting the detecting point, simulating the electromagnetic field simulated, and obtaining the moment domain waveform diagram of the electric field in the simulation region.

Electromagnetic field simulation method based on face-centered cubic and subgrid technique

The present application relates to a method and apparatus for batch testing device, related a computer device and a medium. The method includes: writing a corresponding test identification into each of the devices to be tested, wherein different devices to be tested have different test identifications; acquiring a device identification of each of the devices to be tested and generating a device identification sequence; sending corresponding test cases to the devices to be tested sequentially according to the device identification sequence, so that each of the devices to be tested executes the corresponding test case; and generating a test result for each of the devices to be tested, the test result corresponding to the corresponding test identification.

Method and apparatus for batch testing device, related computer device and medium

Embodiments of the present disclosure provide a grid structure. The grid structure includes a carrier and a support column; wherein the support column is located on the carrier, the support column has a top surface for supporting a sample; and the support column has a groove, the groove extends along a direction from the top surface to the carrier, and a groove wall of the groove is connected to the top surface.

Grid structure

An air-cooled refrigerator comprises: a housing, a freezer liner, a variable-temperature liner, a refrigerator liner, a foam layer, an embedded member, an electric damper, a freezer air outlet channel, a variable-temperature air inlet channel and a refrigeration air inlet channel. The space between the housing and the freezer liner, variable-temperature liner and refrigerator liner is filled with the foam layer. The electric damper is disposed above the embedded member and in the foam layer, and is provided with a cool air inlet, a first cool air outlet and a second cool air outlet thereon.

Refrigerator

A rigid-collision-free transmission line spacer clamp connection structure includes a spacer frame, rotating joint rubber gaskets and spacer connecting clamps, the spacer frame being uniformly provided with a plurality of rotating joint slots that are rotationally connected with spacer connecting clamps, adopting a 'spacer frame, rotating joint rubber gasket and spacer connecting clamp body tail' connection form. The spacer connecting clamp has a connecting rod and a clip, the connecting rod being provided with a connecting rod mounting hole at a rear end and the rotating joint slot being provided with a rotating joint rubber gasket and a spacer connecting clamp rotating shaft therein. The spacer connecting clamp rotating shaft penetrates through the connecting rod mounting hole and a rotating joint rubber gasket mounting hole.

Rigid-collision-free transmission line spacer clamp connection structure

Growing community of inventors

Hefei, China

Wei Yang