Chinese Academy of Sciences

Nanjing Tech University

China Construction Industrial & Energy Engineering Group Co., Ltd.

Autocore Technology (nanjing) Co., Ltd.

Nanjing Geneleap Biotechnology Co., Ltd.

China Construction Equipment & Engineering Co., Ltd.

Jie Liu

Dong Liu

Cheng Chen

Yang Zhang

Xiaorong Chen

Shengcai Shi

Jun Jiang

Zhenhui Lin

Yiping Huang

Haoji Deng

Yue Gao

Wenying Duan

Jinlin Liu

Yu Wang

Zhou Zhou

Shuaixing Mai

Dehua Wang

Huali Wei

Zilong Zhong

Xiangchao Wang

Shibin Lv

Jaewoo Lee

Fanming Shang

Xiaoyao Hao

Feng Liang

Lei Fan

Shan He

Yumao Lin

Dan Tse

Jingting Sun

Qijun Yao

Ting He

Changsha Liu

A beehive indoor-air alternate-working dehumidification system includes a fresh air dehumidification sterilization system. The fresh air dehumidification sterilization system includes a fan, a filter, a dehumidification apparatus, a moisture absorbing material, a plasma generator, a temperature and humidity sensor, a heater, and a three-way valve. A hexagonal prism beehive structure is used in a dehumidification apparatus, and a novel moisture absorbing material with high moisture absorption and high temperature sensitivity is used to dehumidify fresh air, to improve a dehumidification capacity and reduce dehumidification energy consumption. The plasma generator generates ions to sterilize and deodorize fresh air. The temperature and humidity sensor detects humidity of fresh air, determines whether the material needs desorption. The heater heats return air to enable the return air to desorb a saturated moisture absorbing material.

Beehive indoor-air alternate-working dehumidification system with sterilization function and method

In a system for intelligent monitoring strain and temperature of a bullet tank, distributed strain fiber optic cables and distributed temperature fiber optic cables are laid on a surface of a bullet tank body, and pressure gauges are arranged in a soil layer below the bullet tank body, so that the surface and surrounding states of the bullet tank body are monitored. Detected data is gathered by collectors and then transmitted to a field control system. The field control system respectively performs data communication with a numerical simulation system and a central control display screen. The numerical simulation system uses finite element software to simulate the bullet tank body and the soil layer below, determines a corresponding temperature and stress change range, and transmits the temperature and stress change range to the field control system for comparison with the detected data.

System and method for intelligent monitoring strain and temperature of bullet tank based on distributed optical fibers

An omnidirectional measurement system for a time-varying characteristic of atmospheric vapor radiation includes an antenna and calibrator assembly, a receiver assembly, a room temperature IF assembly, and a data acquisition and system control assembly. Atmospheric vapor features a wide profile and strong radiation in a frequency band of 183 GHz, and is often seen in the characteristic measurement of atmospheric vapor in high-altitude areas. The omnidirectional measurement system combines a superconductor-insulator-superconductor (SIS) mixer with high detection sensitivity in the frequency band of 183 GHz with a structure that integrates pitch scanning, omnidirectional scanning, and automatic calibration to achieve fast and high-precision omnidirectional scanning measurement of the time-varying characteristic of atmospheric vapor radiation. The omnidirectional measurement system has a pitch adjustment-based fast omnidirectional scanning function, and can measure the time-varying characteristic of atmospheric vapor radiation with higher precision and higher temporal resolution through the SIS mixer with higher sensitivity.

Omnidirectional measurement system for time-varying characteristic of atmospheric vapor radiation

This invention relates to the fields of mRNA vaccines, mRNA therapy, and gene therapy and specifically to the use of gene expression vectors or PCR amplicons containing various 5′UTR sequences followed by coding sequences for in vitro and in vivo production of mRNA or proteins of interest.

Modification of gene transcription and translation efficiency by 5′UTR sequence variation

A distributed centralized automatic driving method comprises a sensor processing module, a perception positioning module, a perception target detection module, a decision-making module, a planning module, and a vehicle control module. By clearly defining data domains and a control process, a modular design is performed to implement each functional method, and each module can be deployed to a control unit of the corresponding data domain according to the load of a computing platform. The distributed centralized automatic driving method has different computing requirements for different scenarios. By means of a distributed design, centralized computing is distributed to different computing unit modules, so as to greatly improve the stability, efficiency and parallelism of the method, thereby improving the overall performance of the method.

Distributed centralized automatic driving method

Growing community of inventors

Nanjing, China

Jie Liu