Shanghai United Imaging Healthcare Co., Ltd.

Signify Holding B.v.

China Petroleum & Chemical Corporation

Baoshan Iron & Steel Co., Ltd.

Pelco, Inc.

International Business Machines Corporation

Motorola Corporation

Covidien LP

Hoffmann-la Roche Inc.

China Unionpay Co., Ltd.

Honeywell International Inc.

Corning Incorporated

Chinese Academy of Sciences

F. Hoffmann-la Roche Ag

Jiangsu Hengrui Medicine Company Ltd.

Li Wang

Cheng Ni

Johannes Stahl

Yanfang Liu

Jingjie Zhou

Wei Zhang

Jonathan S Maltz

Tao Liu

Guozhen Qi

Leihong Zheng

Feichao Fu

Jian Zhang

Jun Wu

Wei Han

Peng Wang

Franco Lodato

Hong Shen

Cheng Wang

Supratik Bose

Xuefei Tan

Peng Cho Tang

Yongfu Liu

Chungen Liang

Chao Li

Jianfeng Liu

Lu Gao

Song Feng

Lin He

Dongdong Chen

Yifeng Jiang

Min Li

Xingen Yu

Xiaoqing Duan

Wei Xiong

Xiaodong Zhu

Zhijun Cheng

Todd W Roshitsh

Orlando Hernandez

Tao Pan

Lidong Chen

Qi Yang

Hongtao Wang

Peng Xue

Charles S Baxter

Xinyan Jin

Yong Zhong

Shoubo He

Shuai Cao

Jianwei Fu

John M Coogan

Shu Zhou

Xiaohong Li

Hongjun Zhang

Zhinan Yu

Hejun Lü

Yangyang Zhang

Wenming Chen

Junyi Wang

Jianjun Zhi

Hongbo Fei

Tao Cai

Yiqian Chen

Hao Zheng

Jiangkai Sun

Jing Cao

Buliang Sun

Jianxiong Zou

Lan Deng

Xiaofeng Zhang

Zongrui Sun

Haoshan Zhu

Chengjia Yuan

Jincheng Mei

Grace Jang

Yulong Zhang

Guangkui Hu

Hongyuan Zong

Chunlang Hong

Gang Pan

Zhangfan Deng

Mingyuan Song

Van-Cuong Hoang

Weijun Feng

Jiun Keat Ong

Yanliang Zhao

Shengqiang Bai

Hanlong Zhang

Can Liao

Shenglan Wang

Yiqiang Sun

Qihang Han

Ling Gen Mo

Bin Ning

James Whitaker

Zhangyong Wei

Kunbiao Lu

Wenbin Zhang

Yanxue Wang

Mingxia Sun

ChenZhao Zhang

Disclosed are a low-cost ultra-high-strength multiphase steel plate/steel strip and its manufacturing method. Said steel plate/steel strip comprises the following components in percentage by weight: 0.03 to 0.07% of C, 0.1 to 0.5% of Si, 1.3 to 1.9% of Mn, less than or equal to 0.02% of P, less than or equal to 0.01% of S, 0.01 to 0.05% of Al, 0.2 to 0.5% of Cr, 0.07 to 0.14% of Ti, less than 0.03% of (Ni+Nb+Mo+V), and the balance being Fe and other inevitable impurities; and Mn+1.5Cr+5 (Ti+Al+Cu)+10(Mo+Ni)+20(Nb+V)<3.0; Mn+2Cr+4Ti+4Nb+4V+4Mo—Si/3+2C≤3.0. The steel plate is mainly used for the manufacturing of automotive chassis and suspension system parts.

Low-carbon low-cost ultra-high-strength multiphase steel plate/steel strip and manufacturing method therefor

The present disclosure is related to a microwave source. The microwave source may include a cathode heater and a thermionic emitter. The cathode heater may include a first component, and a second component enclosing at least a portion of the first component. The thermionic emitter may be configured to release electrons when the thermionic emitter is heated by the cathode heater. At least a portion of the second component of the cathode heater may be in contact with the thermionic emitter.

Radiotherapy device and microwave source thereof

Techniques are described with respect to a system, method, and computer product for generating multi-media content based on linguistics. An associated method includes receiving a plurality of linguistic inputs and analyzing the plurality of linguistic inputs. The method further including generating multi-media content for presentation to a user based on the analyzing of the linguistic inputs.

Generating animated videos based on linguistic inputs

The present disclosure relates to a radiation treatment system. The radiation treatment system may include an MLC having at least one layer of leaves and at least one block. Each of the at least one layer of leaves may include a first group of leaves and a second group of leaves. At least a portion of the leaves may be movable to block pathways of a first portion of the radiation beams within a radiation area. A second portion of the radiation beams may be incident at a treatment region of the radiation treatment system. The MLC may be situated in a first plane. The at least one block may be situated in a second plane different from the first plane. The at least one block may be configured to shield at least a portion of leaking radiation beams within an end area.

Radiation treatment system and operating method thereof

A method for deep treatment of household waste leachate by a biochemical process is provided, including: arranging one anoxic tank and two aerobic tanks in series; introducing the household waste leachate into the primary anoxic reactor, and diluting the household waste leachate to an concentration acceptable to microorganisms; introducing the diluted household waste leachate into the primary aerobic reactor, and subjecting the diluted household waste leachate to an pre-nitrification reaction to obtain a reactant; introducing the reactant into the secondary aerobic reactor, and subjecting the reactant to a main nitrification reaction to convert ammonia nitrogen into nitrate nitrogen and nitrite nitrogen by nitrification of nitrobacteria; refluxing the nitrification liquid to the primary anoxic reactor, converting the nitrate nitrogen and nitrite nitrogen into nitrogen gas by denitrobacteria in the primary anoxic reactor, and discharging the nitrogen gas into atmosphere, thereby finishing an denitrification process.

Method for deep treatment of household waste leachate by biochemical process

A wireless charging system for charging batteries () in a medical environment is provided. The wireless charging system may include a power transmitter and a power receiver. The power transmitter produces a strong near-distance magnetic field and transmits the magnetic field via a transmitting antenna to a power receiver. The power receiver may receive the transmitted magnetic field via a power receiver antenna. The converted electrical power may charge multiple rechargeable batteries () simultaneously with high efficiency.

Medical device wireless charging system

One or more embodiments of the present disclosure relate to a radiotherapy target device. The radiotherapy target device may include: a target component including a target body and a support supporting the target body; and a housing surrounding the target component. The housing may include a first surface and a second surface allowing radiation beams to pass through.

Radiotherapy target device

A radiation system is provided. The radiation system may include a bore accommodating an object, a rotary ring, a first radiation source and a second radiation source mounted on the rotary ring and a processor. The first radiation source may be configured to emit a first cone beam toward a first region of the object. The second radiation source may be configured to emit a second beam toward a second region of the object, the second region including at least a part of the first region. The processor may be configured to obtain a treatment plan of the object, the treatment plan including parameters associated with radiation segments. The processor may be further configured to control an emission of the first cone beam and/or the second beam based on the parameters associated with the radiation segments to perform a treatment and a 3-D imaging simultaneously.

Radiation systems for radition treatment and imaging

A device is provided for radially strengthening a polylactic acid tube, which includes a tubular mold, a rotating blade and a distal blade, wherein a rotating shaft of the rotating blade is arranged at an axial position of the tubular mold, a first end of the distal blade is movably connected to the rotating blade, and a second end of the distal blade is controlled by a control rod so as to open and close the distal blade. A strengthening method is provided, in which the device for radially strengthening a polylactic acid tube is used. The method includes loading a polylactic acid tube to be strengthened into the strengthening device, heating the strengthening device for a first preset time, rotating the rotating blade in a constant direction while opening the distal blade at a first speed such that the second end of the distal blade approaches the tubular mold, closing the distal blade and restoring the distal blade to an initial state after squeezing and scraping for a second preset time, cooling the strengthening device to room temperature, taking out a strengthened polylactic acid tube, and cutting off redundant sections. The tube strengthened by the above-mentioned strengthening device and method has a better wall thickness uniformity, more precise inner and outer diameter dimensions, with no axial orientation, and no thermal creep in a low temperature range such as body temperature, etc.

Device and method for radially strengthening polylactic acid tube

The present disclosure may provide a radiation system including a first rotation portion, a second rotation portion, a treatment head, one or more imaging sources, and at least one detector. At least a portion of the treatment head may be disposed in the first rotation portion. At least one of the one or more imaging sources may be disposed in the second rotation portion. The second rotation portion may be able to rotate independently from the first rotation portion.

X-ray imaging system for radiation therapy

The invention relates to a method for regulating the gas velocity of the empty bed in a fluidized bed, wherein solid catalysts are used as fluidized particles or as a part of fluidized particles, characterized in that the gas velocity of the empty bed μ of the reaction zone of the fluidized bed is measured, compared with the bed average catalyst density ρ of the solid catalysts in the reaction zone of the fluidized bed, the gas velocity of the empty bed μ being adjusted as required such that the gas velocity of the empty bed μ and the bed average catalyst density ρ satisfy the formula (I) below: ρ=0.356μ−4.319μ−35.57μ+M; wherein M=250−; where μ is provided in m/s and ρ is provided in kg/m. The method can be used for the industrial production of lower olefin.

Method for regulating the gas velocity of the empty bed in a fluidized bed

The present disclosure may provide a radiation system. The radiation system may include a treatment head, a detector, a plurality of imaging sources, and a gantry. The treatment head, the detector, and the plurality of imaging sources may be mounted on the gantry. The treatment head may be configured to deliver a treatment beam toward an object. The plurality of imaging sources may be configured to deliver a plurality of imaging beams toward the object. At least two of the plurality of imaging sources may share the detector. The detector may be configured to detect at least two of the plurality of imaging beams. The detected at least two imaging beams may be emitted by different imaging sources of the at least two imaging sources.

The invention relates to a process of converting methanol in a fluidized bed reactor comprising feeding a methanol-containing feedstock into a fluidized bed reactor, contacting the feedstock with a catalyst, to produce a product comprising ethylene and propylene under effective conditions; the fluidized bed reactor comprises a diluent-phase zone and a dense-phase zone, wherein the diluent-phase temperature difference between any regions of the diluent-phase zone having a methanol concentration of more than 0.1 wt % (preferably more than 0.01 wt %) in the fluidized bed reactor is controlled to be less than 20° C., and the dense-phase temperature difference between any regions in the dense-phase zone having a methanol concentration of more than 0.1 wt % (preferably more than 0.01 wt %) in the fluidized bed reactor is controlled to be less than 10° C.

Process of converting methanol in a fluidized bed reactor

The present invention provides a method for manufacturing a cold-rolled or zinc-plated dual-phase steel plate over 980 MPa. After being subjected to hot rolling, coiling, bundling, and online heat preservation, a slab is directly sent to a cold rolling and continuous annealing process, or a cold rolling, continuous annealing, and zinc plating process, so as to obtain a cold-rolled or zinc-plated dual-phase steel plate, wherein the coiling temperature is controlled to be over 450° C. The online thermal preservation means that after uncoiling of each hot-rolled coil, an independent and airtight thermal preservation cover is closed, and the hot-rolled coil with the closed thermal preservation cover is transferred to coil rolling by means of a steel coil conveying chain or a traveling car; the thermal preservation temperature for the hot-rolled coil in the thermal preservation cover is over 450° C., and the thermal preservation duration is less than 20 hours. According to the present disclosure, by means of the design of a thermal preservation process with or without a heat source after hot rolling and coiling, the manufacturing problems such as edge cracks and sharp fluctuation in thickness after cold rolling are solved, and good cold rolling manufacturability is achieved.

Method for manufacturing cold-rolled or zinc-plated dual-phase steel plate over 980 MPa

The present invention relates to the field of medical devices and discloses a program control system and method for an implantable electronic device. The program control system includes at least one communication device, at least one terminal device and a cloud server communicatively connected to both the communication device and the terminal device. The communication device is configured to acquire feedback data from the implantable electronic device (IED) and upload the feedback data to the cloud server. The cloud server is configured to process the feedback data and store the processed feedback data. The terminal device is configured to retrieve the processed feedback data from the cloud server for enquiry by a user. In the present invention, there is also provided a program control method for an implantable electronic device. The present invention entails a processing mode for use on a cloud platform in which individual components in the program control system can be separately upgraded in a timely manner, thus lowering the hardware upgrading cost and achieving more scientific analysis and management of data.

Program control system and method for implantable electronic device

Growing community of inventors

Shanghai, China

Li Wang