Other

Boe Technology Group Co., Ltd.

Ordos Yuansheng Optoelectronics Co., Ltd.

Aimer Co., Ltd

Capital University of Physical Education and Sports

Zhang, Jilin

Zhang, Yi

Huijie Zhang

Xin Zhao

Jingyi Xu

Yanwei Ren

Yanan Yu

Wenlong Zhang

Jilin Zhang

Yi Zhang

Jian Zhang

Peng Li

Feng Liu

Yanfeng Li

Shuai Han

Ying Yan

Long Sun

Yuelin Wang

Jingwei Hou

Yanhao Sun

Xiaokang Wang

Lanhui Zhai

Xiao'e Pan

Minghui Dong

Wukai Wang

Lixia Wei

Chunjuan Wang

Shengwen Shang

Xiaoqin Zhuo

Xinglong Zhou

Jingping Ren

Yunshan Guo

A sports bra shock absorption effect evaluation method includes: allowing a subject to wear a sports bra for an experimental test, adhering a total of 43 infrared reflective mark points on the body, and completing preparation; allowing the subject naturally to stand on a treadmill, and acquiring static coordinate data; starting the treadmill, acquiring dynamic coordinate data for 5 minutes in sports when a speed in sports reaches 6-12 km/h, and immediately asking a subjective perception of the subject after doing sports; converting the dynamic coordinate data into coordinate data in which a thoracic vertebra point is defined as an origin, and calculating a square root index S of displacement amplitude data in the left-right direction and the up-down direction; and numerically sorting the displacement amplitudes according to the square root index S, and corresponding to subjective perceptions one by one to obtain hierarchical definitions for an existing bra.

Sports bra shock absorption effect evaluation method and system

A liquid crystal display panel () and a display apparatus (). The liquid crystal display panel () includes a color filter substrate (), an array substrate (), and a sealant (). An amorphous silicon layer () and a first interlayer dielectric () are provided between a shading layer () and a first substrate (), a first through groove () is formed in the shading layer () and the amorphous silicon layer (), and a part of the sealant () is filled in the first through groove () and is in direct contact with the first interlayer dielectric (); and/or a planarization layer () is wrapped with a second interlayer dielectric (), such that the planarization layer () is respectively separated from the sealant () and a second substrate (), and the second interlayer dielectric () is in direct contact with the sealant (). The phenomenon of film separation in a liquid crystal display panel is effectively alleviated, and the reliability of the liquid crystal display panel is improved.

Liquid crystal display panels and display apparatuses

The present disclosure provides a display panel and a display device. The display panel includes a display region, a frame region surrounding the display region, a color filter substrate, and an array substrate opposite to the color filter substrate. A black matrix is disposed on a side of the color filter substrate facing the array substrate. The array substrate is provided with a grounding portion located in the frame region. The grounding portion is electrically connected to a portion of the black matrix located in the frame region through a conductive portion. The portion of the black matrix located in the frame region is provided with a first through groove surrounding the display region. The first through groove penetrates the black matrix along a thickness direction of the black matrix. A portion of the first through groove is located between the conductive portion and the display region.

Display panel and display device

An array substrate which includes a display region and a peripheral region surrounding the display region, the peripheral region includes a data line lead region and a driving circuit region, and the data line lead region is between the driving circuit region and the display region; the driving circuit region includes a driving circuit, the data line lead region includes a the plurality of data line leads, and the plurality of data line leads extend from the display region and are electrically connected with the driving circuit; and the data line lead region includes peripheral data line leads, a region of the peripheral region close to the peripheral data line leads includes at least one retaining wall configured to prevent plasma from affecting the peripheral data line leads. A method for fabricating an array substrate, a display panel, and a display device are also disclosed.

Array substrate and method for fabricating the same, display panel, display device

A wave power generation device comprises a floating energy harvester (), a plurality of energy conversion levers () and a plurality of energy transferring rods () suspended around the floating energy harvester (); one end of the energy transferring rod () is connected to the floating energy harvester (), and the other end is sleeved onto the lower end of the energy conversion lever (); the energy transferring rod () transfers energy harvested from a horizontal movement of a wave by the floating energy harvester to the energy conversion lever (), and follows the vertical motion of the energy conversion lever () as the surface of the sea rises and falls; an upper end of the energy conversion lever () is connected to a first working mechanism (), and a lower end of the energy conversion lever () is submerged in seawater.

Wave power generation device

Disclosed herein is a floating ball filling-control device for a cryogenic tank with enhanced structural stability. The floating ball filling-control device comprises a liquid feeding pipe () with a liquid discharging end disposed in the liquid storage tank (), the liquid feeding pipe () having liquid spraying holes () located on the pipe wall at the top of the pipe, and a slide valve () arranged on the top end of the liquid feeding pipe, wherein the slide valve is in a sliding fit with the liquid feeding pipe in a vertical direction via a floating ball lever driving mechanism, and forms an open/close mechanism for the liquid spraying holes via a control mechanism.

Floating ball filling-control device for cryogenic tank

An oceanic wave energy utilization system includes a floating energy collection device, an energy transfer device and an energy conversion device. The floating energy collection device is connected to the energy conversion device via the energy transfer device. The floating energy collection device is made up of a hull-shaped float and a float limitation device. Vertical energy collection plates are arranged at the underside of the float, while the energy transfer device is made up of a fixed seat and an energy transfer rod, said fixed seat being fixed at shore-side or at the seabed and movably connected to the energy transfer rod. The energy transfer rod is movably connected to the floating energy collection device and to the energy conversion device.

Oceanic wave energy utilization system

Growing community of inventors

Beijing, China

Huijie Zhang