Shanghai United Imaging Healthcare Co., Ltd.

Shandong Danhong Pharmaceutical Co., Ltd.

Shanghai Haoye Capacitors Co., Ltd

Boston Scientific Scimed, Inc.

China Petroleum & Chemical Corporation

Shanghai Research Institute of Petrochemical Technology, Sinopec

Shanghai Haoye Electric Co., Ltd

Intel Corporation

Micron Technology Incorporated

3m Innovative Properties Company

Integrated Device Technology, Inc.

Ii-vi Delaware, Inc.

Mettler-toledo Gmbh

Mettler-toledo International Trading (shanghai) Co., Ltd.

Mettler Toledo Instrument (shanghai) Company Limited

Feng Xu

Fuyi Fang

Wei Luo

Haiying He

Zheng Wang

Hongwei Li

Zhigan Jiang

Weidong Li

Weihua Shi

Linghui Wu

Minggao Zeng

Kunmin Lai

Zikui Zhang

Chun Yang

Qiang He

Chao Wu

Cheng Zhang

Hao Pan

Weixiang Sun

Naifeng Bian

Jingxian Xiao

Yuan Chester Hong

Xiqiang Chen

Zheming Wang

Wei Gao

William H Wang

Long Van Nguyen

Hans-Rudolf Burkhard

Weimin Yang

Ke Han

Lingzhi Hu

Wei Wang

Shamei Shi

Guanghe Wu

Wenjun Wu

Huaping Peng

Ranran Zhang

Xiaoshuan Fu

Baohui Liu

Jinhua Jiang

Yue Ge

He Han

Min Wu

Naizhi Zhao

Hong Bing Xiang

Sheng-yuan Zhang

Charles Sun

Guo Tong Zhao

Chong Heng

Zhifeng Wang

Kaihua Lu

Hand-Rudolf Burkhard

Robin Xiang

Methods, systems, and devices for dynamically adjusting data read size are described. A memory system controller may be configured to dynamically adjust a size of data transmitted to a host system based on determining a quantity of data requested by the host system. The memory system controller may support receiving a read command of a first data size, incrementing a counter by the first data size, requesting the data from a memory device according to a second data size, and transmitting the data from the memory device according to a third data size based on the counter. The memory system controller may determine the counter does not satisfy a threshold and configure the third data size as a relatively small quantity of data. However, the memory system controller may determine the counter satisfies the threshold and configure the third data size as a relatively large quantity of data.

Dynamically adjusting data read size

The embodiments of the present disclosure provide an imaging system, the imaging system may include a volume coil; a support assembly, wherein the volume coil is configured to surround an outer side of the support assembly or the support assembly is configured to surround an outer side of the volume coil; and a detector, installed on the support assembly and configured to receive gamma photons generated by radionuclides from a subject.

Imaging systems

An MR-PET apparatus is provided. The MR-PET apparatus may include a supporting component, a PET detection device, an RF coil, and a signal shielding component. The PET detection device may be supported on the supporting component. The PET detection device may be configured to receive a plurality of photons. The RF coil may be configured to generate or receive a radio frequency (RF) signal. The signal shielding component may be placed between the PET detection device and the RF coil. The signal shielding component may be configured to shield the PET detection device from at least part of the RF signal.

Magnetic resonance-positron emission tomography imaging apparatus

The present disclosure may provide a coil assembly. The coil assembly may include a supporting assembly and a radio frequency (RF) coil supported on the supporting assembly. The RF coil may have a plurality of coil units and a plurality of transmission ports. At least one of the plurality of transmission ports may be operably connected to a single coil unit of the plurality of coil units. Each of the plurality of transmission ports may be configured to transmit a drive signal to one of the plurality of coil units for generating a magnetic field.

Coil assembly and magnetic resonance system

Fluidic devices, methods, and systems are disclosed. One system may comprises a sheath, a delivery module, and a removal module. The sheath includes a working lumen, a delivery lumen, and a removal lumen. The delivery module is configured to move a fluid from a fluid reservoir and into a body cavity through the delivery lumen. The removal module is configured to move the fluid and a particulate contained therein out of the body cavity through the removal lumen, through a filtration device that removes the particulate, and back into the fluid reservoir. One method comprises placing a distal end of sheath into a body cavity, energizing the working lumen to generate a particulate in the cavity, moving the fluid into the cavity to engage the particulate, and moving the fluid and the contaminant from the body cavity, through a filter for removing the contaminant, and back into the fluid source.

Fluidic devices, methods, and systems

A weighing sensor and a lever are disclosed. The weighing sensor has a load-receiving portion, a fixing portion, and a parallel guiding portion connected to the load-receiving portion and the fixing portion. The parallel guiding portion has upper and lower parallel guiding units, separated from each other. The ends of the parallel guiding units are connected to the load-receiving portion and the fixing portion. The fixing portion has an extension located between the parallel guiding units. The extension is at a distance from both parallel guiding units and extends to the load-receiving portion. A gap is formed between the extension and the load-receiving portion; and the distance between the extension and the upper parallel guiding unit allows a lever to pass through. The weighing sensor has a simple structure, both the processing process and the assembly process are simplified, and the processing and assembly during production are facilitated.

Weighing sensor and lever

An example method of assembling an optoelectronic assembly may include aligning a receptacle with a sleeve that may have a radial flange and with a ferrule that may have a light propagation axis. The method may include axially displacing one or more of the receptacle, the sleeve, and the ferrule such that the receptacle may be positioned at least partially within the sleeve and may at least partially surround the ferrule. The method may include aligning a fiber stub that may have a fiber stub pigtail and a fiber stub flange with the receptacle. The method may include axially displacing one or both of the fiber stub and the receptacle such that the fiber stub may be positioned in close proximity with the ferrule. The method may include coupling the sleeve via the radial flange and the fiber stub via the fiber stub flange with a retention device.

Retention device for optoelectronic connections

A PET-MR apparatus is provided. The PET-MR apparatus may include a first supporting component, a PET detector, a second supporting component, and a radio frequency (RF) coil. The first supporting component may have an inner surface and an outer surface. The PET detector may be supported on the outer surface of the first supporting component. The second supporting component may be at least partially surrounded by the first supporting component. The RF coil configured to generate or receive an RF signal may be supported on the second supporting component.

Positron emission tomography-magnetic resonance imaging apparatus

Systems and methods may provide for obtaining first sensor data associated with a gyroscope and obtaining second sensor data associated with a magnetometer. Additionally, the first sensor data, the second sensor data and an extended Kalman filter may be used to calibrate the magnetometer. In one example, a sampling rate of the magnetometer is increased before obtaining the second sensor data and the sampling rate of the magnetometer is decreased after calibration of the magnetometer.

Extended Kalman filter based autonomous magnetometer calibration

Disclosed are a method for preparing an imidazole derivative and crystal form A and crystal form B thereof, and also disclosed is a method for preparing a compound of formula (I) and an intermediate thereof. 

Process for preparing 1-isobutyryl-1'-((1-(4,4,4-trifluorobutyl)-4,5,6,7-tetrahydro-1H-benzo[D]imidazol-2-yl)methyl)spiro[azetidine-3,3&#x2032;-indolin]-2&#x2032;-one

Crystal form B of 1-isobutyryl-1'-((1-(4,4,4-trifluorobutyl)-4,5,6,7-tetrahydro-1H-benzo[d]imidazol-2-yl)methyl)spiro[azetidine-3,3&#x2032;-indolin]-2&#x2032;-one

A method for producing a fluffy temperature regulating warmth retention material and the fluffy temperature regulating warmth retention material produced therefrom are disclosed. The method comprises: selecting a low melting point fiber and an additional fiber; carding to form a single web; spray coating a phase change material along at least part of the length of a surface of the single web; lapping layer by layer of the single web; and performing a heat setting reinforcement to form the warmth retention material. According to the present invention, a fluffy temperature regulating warmth retention material comprising an appropriate ratio of a phase change material may be obtained and the material exhibits a satisfactory temperature regulating effect, and meanwhile, it can maintain, to the full extent, or is close to, the original filling power and soft hand feeling where no phase change material is incorporated. In addition, the phase change material can be retained very well within the fluffy temperature regulating warmth retention material and thus has a wash resistance property.

Method for producing a fluffy temperature regulating warmth retention material and fluffy temperature regulating warmth retention material

Crystal form A of 1-isobutyryl-1'-((1-(4,4,4-trifluorobutyl)-4,5,6,7-tetrahydro-1H-benzo [d]imidazol-2-yl)methyl)spiro[azetidine-3,3&#x2032;-indolin]-2&#x2032;-one

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Shanghai, China

Feng Xu