Sichuan Institute of Space Systems Engineering

Southwest Petroleum University

Sichuan Aerospace System Engineering Institute

Yubin Yang

Yi Zuo

Yuehai Chen

Lisheng Deng

Jin Liu

Yu Luo

Xinjian Wang

Cheng Qian

Xiandong Nie

Yunyun Guo

Hansheng Zheng

Jinzhou Zhao

Yongming Li

Wanfen Pu

Yijian Chen

Wei Zhao

Peng Li

Kun Wang

Xiao Guo

Quantang Fang

Wenlian Xiao

Jitian Ren

Shuaishuai Liu

Shuxin Duan

Lingli Zheng

Dan Li

Yiqian Cheng

Anlin Jiang

Peng Lu

The disclosure discloses a penetrating cushion damping device comprising a penetrator, and belongs to the field of in-situ penetrating exploration of extraterrestrial celestial bodies. A magnetic conductor encloses the non-penetrating end of the penetrator, a drag plate connected to the penetrator is provided at the lower end face of the magnetic conductor, and a magnetic source structure for generating magnetic force on the magnetic conductor is provided in the non-penetrating end of the penetrator. The disclosure utilizes the penetrating cushion anti-drag mode with the drag plate and the electromagnetic structure, which is self-adaptive to the flight penetration speed and compact in structure, reduces the jump probability, and further reduces the cushion resistance after the speed is reduced. This mode is suitable for the kinetic energy penetration exploration of extraterrestrial celestial bodies with unknown terrain conditions, and takes into account the functional requirements of penetration depth and star surface retention.

Penetrating cushion damping device

An on-orbit recycling method for a buffer foam of a cargo spacecraft includes the following steps: mechanically cutting a shaped PU foam into foam micro-blocks, and putting the foam micro-blocks into a packaging bag for packaging, where the packaging bag is filled with a foaming adhesive; the foaming adhesive includes a component A and a component B, which are independently packaged in a two-component packaging bag; and the component A and the component B are separated by a film; and squeezing the film between the component A and the component B, such that the two components are fully mixed, foamed and expanded to finally burst the two-component packaging bag, where after the packaging bag is burst, the foaming adhesive expands into gaps of the foam micro-blocks; and in a microgravity state of space, the foaming adhesive expands and fills uniformly in all directions and fully infiltrates the foam micro-blocks.

On-orbit recycling method for buffer foam of cargo spacecraft

A system for analyzing a volatile component in extraterrestrial soil through penetration heating induction includes the following: a penetration heater, provided therein with a volatile component measurement and analysis module configured to analyze a volatile component in a detected medium; a gas capture hole, provided on a side wall of the penetration heater and used to divert the volatile component in the detected medium to the volatile component measurement and analysis module; a temperature acquisition module, disposed on the penetration heater and configured to acquire a temperature of the detected medium; and a heating module, disposed on the penetration heater and configured to acquire the temperature of the detected medium. The system has a compact structure, a simple function, and low engineering costs, and can directly detect and analyze a volatile component in deep extraterrestrial soil.

System and method for analyzing volatile component in extraterrestrial soil through penetration heating induction

A high-temperature and high-pressure microscopic visual flowing device and an experimental method are provided by the present disclosure, comprising a seepage simulation system, a micro-displacement and metering system connected to the seepage simulation system, and an image acquisition and analysis system; the seepage simulation system consists of a visual high-temperature and high-pressure kettle, a microscopic core model placed in the visual high-temperature and high-pressure kettle, and glass carriers arranged above and below the microscopic core model; the glass carriers are provided with sealing rubber sleeves, and the visual high-temperature and high-pressure kettle is provided with an annular heating jacket; an outlet of the microscopic core model is provided with a microflow channel which is connected to the micro-displacement and metering system through a pipe, effectively reducing the metering error caused by the dead volume of the pipe.

High-temperature and high-pressure microscopic visual flowing device and experimental method

Growing community of inventors

Chengdu, China

Yubin Yang