Basf Corporation

3m Innovative Properties Company

Huawei Technologies Co., Limited

Semiconductor Manufacturing International Corp.

North & South Brother Pharmacy Investment Company Limited

Hbos Environmental Engineering (shanghai) Co., Ltd.

Nokia Technologies Oy

Basf Se Corporation

Diodes Inc.

Wuhan Kaidi Engineering Technology Research Institute Co., Ltd.

Bcd Shanghai Micro-electronics Company Limited

Feng Zhao

Pascaline Tran

Wolfgang Friedrich Ruettinger

Laif R Alden

Liang Chen

Tao Huang

Weifeng Wu

Li Liao

Jia Di Zhang

Haiqiang Tian

Bo Huang

Gang Wang

Ding Zhong

Kenji Nagai

Changliang Liao

Haiqing Zhang

Ting Gu

Feng Chen

Hong Li

Tao Zhang

Kai Chen

Yu Yang

Jianjun Wu

Bharat R Acharya

Quinn D Sanford

Matthew S Cole

Edgar Viktor Huennekes

Huijie Xie

Xin Huang

Sabine Huber

Peng Qiu

Fangfang Huang

Chunliang Liu

Jingfei Chen

Zheng Ying

David Weinberger

AnJu Shi

Zhixiao Xu

Qiang Zhan

Shangyun Wang

Qiao Deng

Lukas Wengeler

Yuehua Hu

Nils Lawrenz

Jinsong You

Zhe Hu

Qin Sun

Shu-Ching Fan

Feng Yang

Wufeng Deng

Shau-Lin Frank Chen

Joshua D Tibbits

Zhenhua Yao

Mingxing Wang

Zhiping Liu

Yang Liu

Tuhua Chen

Yifei Zheng

Xiulong Men

Wenlong Yang

Diana Carolina Galeano Nunez

Andong Zhao

Yizhong Xie

William Hall

Jingmin Zhao

An Ju Shi

Liping Cheng

Miao Mark Chen

Qibiao Huang

JianGang Su

Hailiang Hou

Zhuquan Gu

Hao Wang

Jiadi Zhang

Carolina Galeano

Miao Chen

Anju Shi

The rotation shaft structure includes a main shaft assembly, and two folding assemblies that are symmetrically disposed with respect to the main shaft assembly. The two folding assemblies may rotate toward or against each other relative to the main shaft assembly. When the folding assembly is specifically disposed, the folding assembly includes a rotation assembly, a support plate, and a housing mounting bracket. The rotation assembly is rotationally connected to the main shaft assembly. The support plate is rotationally connected to the housing mounting bracket and slidably connected to the rotation assembly.

Rotation shaft structure and electronic device

An optical construction () includes a lightguide (), a transmissive reflector (), and an optical sensor (). The lightguide () includes a first major surface () and a second major surface () opposite to the first major surface (). The first major surface () includes a first portion () and an adjoining second portion (). The transmissive reflector () is disposed adjacent to the first major surface () of the lightguide (). The optical sensor () is disposed adjacent to the transmissive reflector () opposite to the lightguide (). The optical sensor () is aligned with the first portion () of the first major surface () of the lightguide (), such that the optical sensor () receives at least a portion of light passing through the first portion () of the first major surface () and transmitted by the transmissive reflector (). The optical construction () further includes an enclosed gap () disposed between the first portion () of the first major surface () of the lightguide () and the transmissive reflector ().

Optical construction

This application provides a rotation shaft structure and an electronic device. The rotation shaft structure includes a main shaft assembly, and two folding assemblies. The folding assembly includes a rotation assembly, a support plate, and a housing mounting bracket. The rotation assembly is rotationally connected to the main shaft assembly. The support plate is rotationally connected to the housing mounting bracket and slidably connected to the rotation assembly. When two housing mounting brackets rotate toward each other, two support plates rotate in a same direction relative to the housing mounting brackets on corresponding sides, so that the two support plates and the main shaft assembly can form a triangle-like display accommodation space. When the electronic device is in a closed state, the display accommodation space can be used for accommodating a bent portion of the flexible display, so that the flexible display is not damaged by extrusion.

An article for a display device having an output surface. The article includes a light valve, a reflective polarizer, and a diffusing layer. The light valve is configured to be disposed on the output surface of the display device. The light valve is operable in a pass mode and a block mode. The reflective polarizer is disposed on the light valve opposite to the display device. The reflective polarizer is configured to substantially transmit light having a first polarization state and substantially reflect light having an orthogonal second polarization state. The diffusing layer is disposed on the reflective polarizer opposite to the light valve.

Article for display device and display system

Disclosed herein are catalyst compositions for removing formaldehyde, volatile organic compounds, and other pollutants from an air flow stream. In one embodiment, a catalyst composition comprises manganese oxide particles and rare earth metal catalyst particles.

Catalyst device for treatment of formaldehyde and volatile organic compounds

A method for production of vanadium catalysts, including steps of 1) providing a mixture comprising a TiO-based support and a composite oxide containing vanadium and antimony; 2) preparing a slurry containing the mixture obtained from step 1), and additive comprising at least one species selected from the group consisting of Si, Al, Zr, Ti, W and Mo, and a solvent; and 3) applying the slurry onto a substrate or processing the slurry into shaped bodies. The vanadium catalysts obtained/obtainable from the method, and use thereof for abatement of nitrogen oxides (NOx).

Method for production of vanadium catalysts

A hinge mechanism includes a first lap joint structure disposed on one end of each linkage component rotatably connected to a base, and extends in a direction from one end of the base to a mounting bracket located on a same side as the first lap joint structure, and a second lap joint structure disposed on one side of each support plate and that faces the base and extends in a direction from the side of the support plate to the base, wherein a second surface of the second lap joint structure slides along a surface of the first lap joint structure when two mounting brackets are relatively folded or unfolded.

Hinge mechanism and foldable electronic device

Disclosed herein are a catalyst composition, catalyst devices, and methods for removing formaldehyde, volatile organic compounds, and other pollutants from an air flow stream. The catalyst composition including manganese oxide, optionally one or more of alkali metals, alkaline earth metals, zinc, iron, binder, an inorganic oxide, or carbon.

Manganese oxide based catalyst and catalyst device for the removal of formaldehyde and volatile organic compounds

A catalyst composition comprising&#x2014;a support comprising TiO,&#x2014;a composite oxide containing vanadium and antimony, which has a rutile-type structure different from VSbOand VSbOas determined by X-ray diffraction (XRD) analysis with CuK&#x3b1; radiation, and&#x2014;optionally, one or more selected from the group consisting of oxides of silicon, oxides of vanadium and oxides of antimony, for selective catalytic reduction of nitrogen oxides; to a process for preparing the catalyst composition, to the catalyst composition obtained/obtainable by the process and to use of the same for selective catalytic reduction of nitrogen oxides.

Selective catalytic reduction (SCR) catalyst comprising a composite oxide containing V and SB, preparation process thereof, and use thereof for nitrogen oxides removal

Disclosed herein are catalyst devices for removing formaldehyde, volatile organic compounds, and other pollutants from an air flow stream, A catalyst device includes a housing, a solid substrate disposed within the housing, and a catalyst layer disposed on the substrate. The catalyst layer includes a base metal catalyst at a first mass percent and a rare earth metal catalyst at a second mass percent.

The present disclosure relates to a catalyst for NOx removal. In some embodiments, the catalyst comprises a support comprising at least one selected from the group consisting of TiO, AlO, SiO, ZrO, CeO, zeolite, TiOand WO, and combinations thereof, and catalytically active components supported on the support. The catalytically active components comprise vanadium, antimony and at least one further component selected from the group consisting of silicon, aluminum and zirconium.

Supported catalyst, monolithic selective catalytic reduction (SCR) catalyst, preparation method therefor, and method for nitrogen oxides removal

A chemical catalysis module is disclosed. The chemical catalysis module includes adsorption cubes for adsorbing a chemical gas. The chemical catalysis module further includes a frame structure for accommodating the adsorption cubes. The frame structure includes two oppositely arranged semi-cells. Each of the semi-cells is uniformly provided with a plurality of cavity structures. Each of the cavity structures is embedded with the adsorption cubes inside. The adsorption cubes are embedded in each of the cavity structures in a single or array manner. One half of the adsorption cubes are embedded in the cavity structure of one of the semi-cells of the frame structure, and the other half of the adsorption cubes are embedded in the cavity structure of the other of the semi-cells of the frame structure. The product has sufficient strength, friction and good aerodynamic performance.

Chemical catalysis module

The present invention provided an apixaban solid composition and a preparation method thereof. The method comprises granulating apixaban by wet granulation, wherein the apixaban has a particle size Dmore than 89 &#x3bc;m.

Apixaban solid composition and preparation method thereof

Growing community of inventors

Shanghai, China

Feng Zhao