Boe Technology Group Co., Ltd.

Beijing Boe Optoelectronics Technology Co., Ltd.

Intel Corporation

Shenzhen Vantop Technology & Innovation Co., Ltd.

Chengdu Boe Optoelectronics Technology Co., Ltd.

Huawei Technologies Co., Limited

Beijing Boe Technology Development Co., Ltd.

Bciflex Medical Technology Co., Ltd.

Beijing Helee Bio-energy Ltd.

Beijing Bciflex Medical Technology Co., Ltd.

The Hong Kong Polytechnic University

Dawei Wang

Jiaqiang Wang

Yanming Wang

Dong Wang

Libin Liu

Guangliang Shang

Shiming Shi

Xi Chen

Weifeng Zhou

Mingche Hsieh

Hejin Wang

Song Zhang

Rui Liu

Jiangnan Lu

Chao Yu

Xinshe Yin

Wei Peng Huang

Can Zheng

Qian Yang

Leibo Liu

Zhigang Wang

Dong Hui Liu

Qian Li

Long Han

Jian Ren

Yadong Zhang

Hao Zhang

Li Wang

Ming Liu

Jing Li

Zheng Liu

Jie Zhang

Ignacio Javier Alvarez

Xiaolong Li

Hong Li

Qi Zhang

Tian Dong

Zhao Li

Chunyan Xie

Fei Fei Li

Lei Zhou

Yanliu Sun

Fei Li

Sa Li

Cuie Wang

Desheng Xiang

Xiujun Cai

Shanchen Kao

Yanchao Zhang

Jianye Tang

Wenli Lan

Jingfei Mu

Cheng Chang

Ganmei You

Yiya Peng

Shouyi Yin

Lidong Wang

Jiqiang Song

Yajun Guo

Eugene Tang

Ling Liu

Junjie Xu

Xuesong Shi

Jinfen Wang

Huihui Tian

Chunjie Wang

Qun Ma

Xiaolong Liu

Jianping Li

Gaowei Chen

Shuainan Liu

Yafeng Wang

Zhengxuan Lv

Jianwu Wu

Guiqiang Yang

Hu Tiger Chen

Gang Liu

Haoran Wang

Youwei Wang

Shaojun Wei

Yanli Wang

Jiejing Huang

Yangyang Zhang

Sun C Chan

Qianying Zhu

Yuhan Qian

Jesse Z Fang

Fuan Zhu

Zhaohui Li

Hongyan Li

Xingjun Shu

Zongli Gao

Runfei Du

Bing Xia

Haitao Ji

Randolph Wang

Yi Qian

Wenzhi Pan

Guanyu Lu

Haiping Zhao

An implantable flexible electrode includes an implantation assembly and a proximal contact part. The implantation assembly is made of a flexible material, and includes an auxiliary implantation part, a microelectrode part, a macroelectrode part, and a lead part electrically connected to the microelectrode part and the macroelectrode part, a macroelectrode site of the macroelectrode part is used to record local field potential information after implantation, a microelectrode site of the microelectrode part is used to record single-unit action potential information, and the dimension of an end of the microelectrode part distal to the macroelectrode part is smaller than the dimension of an end of the microelectrode part proximal to the macroelectrode part. The proximal contact part is electrically connected to the lead part. The implantable flexible electrode enables simultaneous recording of local field potential information and single-unit action potential information to provide comprehensive information about neural activity.

Implantable flexible electrode, device, and kit

A display control method applied to a mobile terminal, which includes a display and is coupled to an external device, includes when the mobile terminal is on a voice call, using the external device; determining that the mobile terminal is in a handheld state or a non-handheld state; when the mobile terminal is in the handheld state, controlling the display to be in a screen-on state; and when the mobile terminal is in the non-handheld state, controlling the display to be in a screen-off state.

Display control method and apparatus

Embodiments of the present disclosure disclose a shift register unit, a driving method thereof, and a device. The shift register unit includes an input circuit, a node control circuit, a first control output circuit, a second control output circuit and an output circuit. By providing the first control output circuit and the second control output circuit, the first control output circuit and the second control output circuit may operate alternately, so that the first control output circuit and the second control output circuit may have time for characteristics recovery respectively, thus improving the service life and output stability of the shift register unit.

Shift register unit, driving method thereof, and device

The present disclosure provides a display device. The display device includes: a flexible substrate including a first organic layer, a second organic layer, and an inorganic layer sandwiched between the first organic layer and the second organic layer; an organic light emitting diode device on the flexible substrate, the organic light emitting diode device including an anode, a cathode and an organic light emitting layer between the anode and the cathode; and a flexible encapsulation layer on the organic light emitting diode device. A material of the first organic layer is the same as a material of the second organic layer, a thickness of the first organic layer is greater than a thickness of the second organic layer, and at least one of the first organic layer or the second organic layer includes inorganic nano-particles.

Flexible substrate and fabrication method thereof, and flexible display apparatus

This application discloses a traffic sending method and apparatus, and the method includes: A first network device receives first traffic comprising first attribute information, wherein the first attribute information identifies a first traffic type of the first traffic; when a first link from the first network device to a second network device is congested, the first network device adjusts a first cost corresponding to the first traffic type to a second cost, wherein the first link is used to forward the first traffic when the cost corresponding to the first traffic is the first cost; and the first network device sends the first traffic to a third network device via a second link from the first network device to the third network device. In this way, ensuring that all traffic in the network can be effectively forwarded, and improving a traffic forwarding rate.

Traffic sending method and apparatus

The present application provides an auxiliary implantation assembly, kit and system for flexible neural electrode, comprising: a cannula having a longitudinal cavity, and a tube wall at the distal end of the cannula configured to form a contact area larger than a first threshold to realize the pressing and limiting against the distal part in a case where the cannula is fixed and contacts the distal part of the flexible neural electrode; and a traction member extending in the longitudinal direction, the distal end of which is formed with a traction part and is configured to form a first physical connection mechanism with the proximal end of the cannula, the first physical connection mechanism is switchable between a locked state and an unlocked state by means of the proximal operation of the traction member.

Auxiliary implantation assembly, kit, and system for flexible neural electrodes

The embodiments of the disclosure disclose a flexible display apparatus. The flexible display apparatus includes a flexible substrate, a display device and a flexible encapsulation layer. The flexible substrate includes a first organic layer, an inorganic buffer layer, and a second organic layer, the inorganic buffer layer is between the first organic layer and the second organic layer, and the first organic layer includes inorganic nano-particles; the display device is located between the flexible substrate and the flexible encapsulation layer; the flexible encapsulation layer is configured to encapsulate the display device.

A shift register circuit includes a denoising control sub-circuit and a denoising sub-circuit. The denoting control sub-circuit is configured to generate an alternating voltage signal according to a voltage of a first voltage terminal and a signal of a second clock signal terminal in response to a signal of a first clock signal terminal, to rectify the alternating voltage signal and then to output a signal to a first denoising control node, so that the voltage of the first denoting control node is maintained to be a voltage that enables the denoising sub-circuit to be turned on. The denoting sub-circuit is configured to denoise a scan signal output terminal in response to a voltage of the first denoising control node being the voltage that enables the denoising sub-circuit to be turned on.

Shift register circuit including denoising control sub-circuit and method for driving same, and gate driving circuit and display apparatus

The embodiments of the application provide a backlight module and a displaying device, relating to the technical field of display. The backlight module comprises a first support structure, an optical film material and a buffer structure; the first support structure is arranged on a side away from a light-outgoing side of the optical film material, and the first support structure and the optical film material have a through-hole; the buffer structure comprises a first buffer portion arranged in the through-hole, and a rigidity of the first buffer portion is less than a rigidity of the first support structure. The backlight module is internally provided with the buffer structure, and the first buffer portion in the buffer structure is arranged in the through-hole that penetrates through the first support structure and the optical film material.

Backlight module including through-hole and display device including the same

A shift register unit, a method for driving a shift register unit, a gate driving circuit, and a display device are provided. The shift register unit includes: a second noise reduction control circuit. The second noise reduction control circuit includes: a first control circuit, configured to transmit a first voltage to a second noise reduction control node; a first coupling circuit, configured to store a level of the second noise reduction control node and adjust the level of the second noise reduction control node; a second coupling circuit, configured to reduce an adjustment magnitude of the first coupling circuit in case of adjusting the level of the second noise reduction control node; a transmission circuit, configured to connect the first noise reduction control node and the second noise reduction control node; and a storage circuit, configured to store the level of the first noise reduction control node.

Shift register unit, method for driving shift register unit, gate driving circuit, and display device

Techniques related to training and implementing convolutional neural networks for object recognition are discussed. Such techniques may include applying, at a first convolutional layer of the convolutional neural network, 3D filters of different spatial sizes to an 3D input image segment to generate multi-scale feature maps such that each feature map has a pathway to fully connected layers of the convolutional neural network, which generate object recognition data corresponding to the 3D input image segment.

3D object recognition using 3D convolutional neural network with depth based multi-scale filters

Methods and apparatus relating to FPGA (Field-Programmable Gate Array) based acceleration in robot motion planning are described. In an embodiment, logic circuitry (such as an FPGA), coupled to a processor, accelerates one or more motion planning operations for a plurality of objects. A first memory, coupled to the logic circuitry, stores data corresponding to a plurality of Oriented Bounding Boxes (OBBs). The plurality of OBBs are to provide Bounding Volume (BV) models for the plurality of objects. Other embodiments are also disclosed and claimed.

FPGA-based acceleration using OpenCL on FCL in robot motion planning

A display substrate is described that comprises: a display area, a retaining wall surrounding the display area, and a thin film encapsulation layer comprising a first inorganic barrier layer, an organic barrier layer, and a second inorganic barrier layer. The display area has a corner portion being a portion of the display area surrounded by the retaining wall. Convex dams are provided at a position on the substrate corresponding to the corner portion. A portion of the first inorganic barrier layer corresponding to the corner portion covers the convex dams, and a portion of the first inorganic barrier layer between the two adjacent convex dams forms a diversion trench. The organic barrier layer comprises cured organic material, and the organic material is provided on the portion of the first inorganic barrier layer at the corner portion under a capillary action of the diversion trench before curing.

Display substrate and manufacturing process thereof

A technology is described for mapping a physical environment. An example method may include receiving laser point data for laser light reflected from the physical environment and detected by a laser sensor. Points included in the laser point data can be correlated to grid cells in an environment map that represents the physical environment. Error ranges for the points correlated to the grid cells can be determined based in part on an error distribution. Occupation probabilities can then be calculated for the grid cells in the environment map using an interpolation technique and grid cell occupation probabilities for adjacent error grid cells selected based in part on the error ranges of the points, and the grid cells in the environment map can be updated with the occupation probabilities.

Grid occupancy mapping using error range distribution

Growing community of inventors

Beijing, China

Dawei Wang