Microsoft Technology Licensing, LLC

Boe Technology Group Co., Ltd.

Beijing Boe Optoelectronics Technology Co., Ltd.

Chinese Academy of Sciences

Beijing Xiaomi Mobile Software Co., Ltd.

Beihang University

Chongqing Boe Optoelectronics Technology Co., Ltd.

Lenovo (beijing) Limited

China Petroleum Chemical Corporation

Research Institute of Petroleum Processing, Sinopec

Other

Facebook, Inc.

Beijing Baidu Netcom Science Technology Co., Ltd

K-tronics (suzhou) Technology Co., Ltd.

Beijing University of Chemical Tehcnology

Di Wang

Jie Jerry Liu

Hao Zhang

Lingyun Shi

Dimitrios Lymberopoulos

Xue Dong

Zhengyou Zhang

Ming Liu

Yasser Baseer Asmi

Khawar Zuberi

Michel Goraczko

Guozhong Xing

Yu Wang

Abhishek Abhishek

Yi Lu

Huai Lin

Rouzbeh Aminpour

Pedro Urbina Escos

Sriram Govindan

Emanuel Shalev

Xiaolong Liu

Ricardo Gouvea Bianchini

Gaocai Han

Yanli Zhao

Chao Liu

Gang Chen

Zhihui Wang

Guang Wang

Ju Tang

He Sun

Wei Wang

Gang Wang

Eric Clarence Peterson

Sean Michael James

Xuefeng Wang

Bryan David Kelly

Yi Zheng

Jiushun Zhang

John Joseph Siegler

Shuai Han

Jianhong Gong

Jianghong Wen

Keguo Liu

Jingchuan Yu

Yang Liu

Bo Gao

Kun Wang

Haifeng Wang

Yan Wang

Lei Guo

Tiankuo Shi

Chen Zhao

Errui Ding

Nissanka Arachchige Bodhi Priyantha

Jonathan David Goldstein

Suman Kumar Nath

Liang Zhang

Yuri Pekelny

Xiuzhu Tang

Lin Zhu

Badrish Chandramouli

Jianfeng Chen

Xiurong Wang

Chen Meng

Zhongsheng Jiang

Tian Wu

Yafei Li

Hailong Wu

Lei Zhang

Zhengxin Zhang

Badriddine Khessib

Ling Li

Xiaobo Xie

Sheng Zhao

Changhu Wang

Zijiao Xue

Chih-jen Cheng

Quanhua He

Shuo Yang

Gerald Reuben DeJean

Benjamin Franklin Cutler

Xiaoji Li

Chunshui Zhao

Guangwen Chu

Laura Marie Caulfield

Jingtuo Liu

Changqing Xie

Shu Kai Chen

Peter Zabback

Yong Luo

Yuxiao Hu

Xiaoxin Xu

Shan Yu

Haikui Zou

Qian Huang

Mohammed Shoaib

David Maier

Huijun Wu

Cheng Lu

Qingfang Bian

The present disclosure provides a continuous zoom stereoscopic microscope with an adjustable stereoscopic angle, consisting of a microscope stand, a first eyepiece module, a second eyepiece module, a first objective module, a second objective module, a first Risley prism, a second Risley prism, a first image-rotating prism, a second image-rotating prism, a drive module, a control module and an illumination module. The drive module provides preset drive values for individual liquid lenses in the liquid lens sets according to different magnifications to change the focal lengths of the liquid lenses, thereby changing the effective focal lengths of the objective module and that of the eyepiece module, and finally achieving continuous and fast zooming of the stereoscopic microscope to be adapted to different working scenarios. The control module controls the relative angle between the two wedge-angle prisms in the Risley prism, achieving the continuous adjusting of the stereoscopic angle of the stereoscopic microscope, and then acquiring stereo images with different stereo senses.

Continuous zoom stereoscopic microscope with adjustable stereoscopic angle

Provided is an all-electrically-controlled spintronic neuron device, a neuron circuit and a neural network. The neuron device includes: a bottom antiferromagnetic pinning layer; a synthetic antiferromagnetic layer formed on the bottom antiferromagnetic pinning layer; a potential barrier layer formed on the ferromagnetic free layer, wherein a region of the ferromagnetic free layer directly opposite to the potential barrier layer forms a threshold region; a ferromagnetic reference layer formed on the potential barrier layer; wherein the potential barrier layer, the ferromagnetic reference layer and the ferromagnetic free layer form a magnetic tunnel junction; a first antiferromagnetic pinning layer and a second antiferromagnetic pinning layer formed on an exposed region of the ferromagnetic free layer except the region directly opposite the potential barrier layer, and located on two sides of the potential barrier layer; and a first electrode formed on the ferromagnetic reference layer.

All-electrically-controlled spintronic neuron device, neuron circuit and neural network

Disclosed is a large-depth metasurface polarization holographic 3D display method, including: performing calculations for a first 3D object and a second 3D object based on an angular spectrum diffraction theory to obtain a first metasurface hologram and a second metasurface hologram; performing interleaved row-by-row insertion of the first and the second metasurface holograms to encode into a synthetic hologram, optimizing phases of the synthetic hologram by using an error diffusion algorithm to obtain phase information required by metasurface structures, that is, meta-phase information; designing the metasurface structures based on the meta-phase information, and making a metasurface structure in odd rows sensitive to left-handed circularly polarized light, and a metasurface structure in even rows sensitive to right-handed circularly polarized light to achieve independent control over different polarization states; and performing holographic 3D reconstruction by illuminating the metasurface structures with laser.

Large-depth metasurface polarization holographic 3D display method

Provided is a spintronic device, a memory cell, a memory array, and a read and write circuit applied in a field of integration technology. The spintronic device includes: a bottom electrode; a spin orbit coupling layer, arranged on the bottom electrode; at least one pair of magnetic tunnel junctions, arranged on the spin orbit coupling layer, wherein each of the magnetic tunnel junctions includes a free layer, a tunneling layer, and a reference layer arranged sequentially from bottom to top, and wherein magnetization directions of reference layers of two magnetic tunnel junctions of each pair of the magnetic tunnel junctions are opposite; and a top electrode, arranged on a reference layer of each of the magnetic tunnel junctions.

Spintronic device, memory cell, memory array and read and write circuit

The three-state spintronic device includes: a bottom electrode, a magnetic tunnel junction and a top electrode from bottom to top. The magnetic tunnel junction includes: a spin-orbit coupling layer, a ferromagnetic free layer, a barrier tunneling layer, a ferromagnetic reference layer, three local magnetic domain wall pinning centers and domain wall nucleation centers. An antisymmetric exchange interaction is modulated, and the magnetic domain wall pinning centers are embedded in an interface between a heavy metal and the ferromagnetic free layer. The magnetic domain wall nucleation centers are at two ends of the ferromagnetic free layer. A current pulse flows through the spin-orbit coupling layer to generate a spin current and the spin current is injected into the ferromagnetic free layer. Under a control of all-electrical controlled, an effective field of a spin-orbit torque drives domain wall to move and displace.

Three-state spintronic device, memory cell, memory array and read-write circuit

A holographic 3D display system based on virtual array splicing of a spatial light modulator includes a laser configured to generate a coherent light beam, first, second and third beam splitters, first and second reflectors, a shutter array, a spatial filter array, a solid lens, first and second light beam deflection elements and a spatial light modulator. The first and second beam splitters and the first reflector are configured to split the light beam generated by the laser into three parallel light beams to irradiate the shutter array. The shutter array is configured to control the three parallel light beams to sequentially pass therethrough according to a set time sequence. The three parallel light beams passing through the shutter array are expanded and collimated by the spatial filter array and the solid lens to form three parallel light beams with the same size and uniform intensity.

Holographic 3D display system based on virtual array splicing of spatial light modulator

A shielding cover and a display device are provided. The shielding cover includes: a shielding cover body; and a shielding cover accessory fixedly connected to the shielding cover body. The shielding cover accessory includes: an accessory bottom including a flat bottom; a connecting arm through which the shielding cover accessory is connected to the shielding cover body; and a positioning arm. The connecting arm and the positioning arm are connected to two opposite ends of the accessory bottom, and protrude in opposite directions from the accessory bottom. The shielding cover accessory further includes a plurality of card slots arranged at positions of the flat bottom close to the positioning arm, each card slot penetrates the flat bottom in a direction perpendicular to the flat bottom, and the plurality of card slots are arranged at intervals in a direction parallel to an extending direction of the positioning arm.

Shielding cover and display device

A method for training a three-dimensional face reconstruction model includes inputting an acquired sample face image into a three-dimensional face reconstruction model to obtain a coordinate transformation parameter and a face parameter of the sample face image; determining the three-dimensional stylized face image of the sample face image according to the face parameter of the sample face image and the acquired stylized face map of the sample face image; transforming the three-dimensional stylized face image of the sample face image into a camera coordinate system based on the coordinate transformation parameter, and rendering the transformed three-dimensional stylized face image to obtain a rendered map; and training the three-dimensional face reconstruction model according to the rendered map and the stylized face map of the sample face image.

Method and apparatus for training a three-dimensional face reconstruction model and method and apparatus for generating a three-dimensional face image

In a method and system for treating a catalytic cracking gasoline, a catalytic cracking process, or a plant employs a fluidized reactor to carry out hydrodealkylation treatment on a catalytic cracking oil gas or catalytic cracking gasoline, so that heavy aromatics present therein can be efficiently converted into light olefins and light aromatics. The method and system can improve the yield of light olefins, allow a long-period stable operation, relieve the contradiction between supply and demand of light aromatics, and solve the problem of high content of heavy aromatics that have low value and are difficult to be utilized in aromatics present in oil gas from catalytic cracking units.

Method and system for treating catalytic cracking reaction product and use thereof

A reconfigurable PUF device based on fully electric field-controlled domain wall motion includes a voltage control layer, upper electrodes, a lower electrode, antiferromagnetic pinning layers, and a magnetic tunnel junction (MTJ). The MTJ includes, from bottom to top, a ferromagnetic reference layer, a potential barrier tunneling layer and a ferromagnetic free layer. In the device, an energy potential well is formed in a middle portion of the ferromagnetic free layer by applying a voltage to the voltage control layer to control magnetic anisotropy, and a current is fed into either of the upper electrodes to drive generation of the magnetic domain walls and pin the magnetic domain walls to the potential well. After the voltage is removed, the potential well is lowered so that the magnetic domain walls are in a metastable state, thereby either a high resistance state or a low resistance state is randomly obtained.

Reconfigurable PUF device based on fully electric field-controlled domain wall motion

A magnetoresistive memory cell includes a first magnetic tunnel junction, a second magnetic tunnel junction and a metal layer. The first magnetic tunnel junction and the second magnetic tunnel junction each are disposed on the metal layer; the metal layer is configured to pass write current, a projection line of an easy axis of the first magnetic tunnel junction on a plane where the metal layer is located forms a first angle against a direction of the write current, and a projection line of an easy axis of the second magnetic tunnel junction on the plane where the metal layer is located forms a second angle against a direction opposite to the direction of the write current; the first angle and the second angle are all less than 90°; the first magnetic tunnel junction and the second magnetic tunnel junction are configured to pass read current.

In-memory computing using SOT-MRAM

The present application provides a high-gravity device for generating nano/micron bubble and a reaction system. In the device, the liquid phase is continuous phase and the gas phase is dispersed phase. A gas enters the interior of the device from a hollow shaft, and the gas is subjected to primary shearing under a shearing effect of aerating micropores to form bubbles; then, the bubbles rapidly disengage from the surface of a rotating shaft under the effect of the rotating shaft rotating at a high speed, and are subjected to secondary shearing under the high-gravity environment with the strong shearing force formed by the rotating shaft to form nano/micron bubbles. The device has the advantages of fastness, stability, and small average particle size. The average particle size of the formed nano/micron bubbles is between 800 nanometers and 50 microns, and the average particle size of the bubbles can be regulated in a range by adjusting the rotating speed of the rotating shaft.

High-gravity device for generating nano/micron bubbles and reaction system

A method for producing light aromatics, includes the steps of: i) contacting a feedstock comprising heavy aromatic(s) with a catalyst in a fluidized reactor for aromatics lightening reaction in the presence of hydrogen to obtain a product rich in C6-C8 light aromatic(s) and a spent catalyst, wherein the heavy aromatic is one or more selected from C9+ aromatics; ii) separating the resulted product rich in C6-C8 light aromatic(s) to obtain hydrogen, a non-aromatic component, C6-C8 light aromatic(s) and a C9+ aromatic component; and iii) recycling at least a part of the C9+ aromatic component to the fluidized reactor. The method has strong adaptability to feedstocks and high flexibility in operation and allows a long-period stable operation. The method can produce high-value light aromatics from heavy aromatics that are difficult to be treated and utilized.

Method for producing light aromatic

The present disclosure discloses a method for inhibiting formation of a biofilm of bacteria. Specifically, the method may include treating the bacteria with an effective amount of a coumarin-chalcone compound. While inhibiting the formation of the biofilm of the bacteria, the effective amount of the coumarin-chalcone compound may reduce virulences of the bacteria and enhance a susceptibility of the bacteria to an antibiotic when applied in combination with the antibiotic. The present disclosure further discloses a composition including an effective amount of the coumarin-chalcone compound. The composition may be used to inhibit the formation of the biofilm of bacteria. The composition may also include an antibiotic, a minimal inhibitory concentration and a minimal biofilm eliminate concentration of which are reduced when the composition is used.

Methods and compositions for inhibiting formation of biofilms

The present disclosure provides a displacement detection circuit of a maglev rotor system and a displacement self-sensing system thereof. The displacement detection circuit comprises a current sampling circuit () configured to collect a current flowing through a corresponding coil (); coils (), which are coils () distributed in series in the maglev rotor system; Hall sensors (), the Hall sensors () being arranged in an upper auxiliary air gap () and a lower auxiliary air gap () of the maglev rotor system, and sensing surfaces of the Hall sensors () being perpendicular to magnetic field directions in the corresponding auxiliary air gaps (); a Hall signal processing circuit () connected to the Hall sensors () and configured to differentiate a Hall sensing signal corresponding to the upper auxiliary air gap () and a Hall sensing signal corresponding to the lower auxiliary air gap (); and a displacement signal resolving circuit () connected to the current sampling circuit () and the Hall signal processing circuit () respectively and configured to acquire a displacement of a rotor in the maglev rotor system according to the current and a differentiation result. By using the detection circuit and the displacement self-sensing system thereof, the axial size of the rotor is reduced, such that detection and control are coplanar, and high precision and simple design are realized.

Displacement detection circuit of maglev rotor system and displacement self-sensing system thereof

Growing community of inventors

Beijing, China

Di Wang