Quantitative analysis of gas component in gas mixt. - by accelerating to supersonic velocity in nozzle and reading compression shock changes

• 1. 卤素氟化物的除去方法和卤素氟化物混合气体中含气体成分的定量分析方法、定量分析装置 [P] . 中国专利： CN113164862A . 2021-07-23
• 2. 基于冲击加速度变化评价岩体等级的评价系统及方法 [P] . 中国专利： CN111911132A . 2020-11-10
• 3. System and method for accelerating reactions in gases using shock waves formed in supersonic gas vortices [P] . 韩国专利： KR20180021680A . 2018-03-05

  机译： 利用超音速气体涡流中形成的冲击波加速气体反应的系统和方法

• 4. Halogen Fluoride Removal Method and Quantitative Analysis Method and Quantitative Analysis Apparatus for Gas Components Contained in Halogen Fluoride Mixed Gas [P] . KR20210087083A . 2021-07-09

  机译： 卤素氟化物去除方法和定量分析方法和定量分析卤素混合气体气体成分的定量分析装置

• 5. Method for removing halogen fluoride and quantitative analysis method and quantitative analysis apparatus of contained gas component in halogen fluoride mixed gas [P] . JPWO2020129726A1 . 2021-11-04

  机译： 去除卤素氟化物中卤素氟化物和定量分析方法的方法，含有气体组分的卤素混合气体

• 1. Velocity Slip and Interfacial Momentum Transfer in the Transient Section of Supersonic Gas-Droplet Two-Phase Flows [J] . 魏文韫, 朱家骅, 夏素兰, 中国化学工程学报（英文版） . 2002,第002期
• 2. Investigation of the structure of pseudo-shocks arising in supersonic gas flow in a radial nozzle [C] . S. P. Kiselev, V. P. Kiselev, V. N. Zaikovskii International Conference on the Methods of Aerophysical Research . 2018
• 3. Design and analysis of an axisymmetric aerospike supersonic micro-nozzle for a refrigerant-based cold-gas propulsion system for small satellites. [D] . Bani, Abdalla Ali. 2016
• 4. Experimental investigation on the characteristics of supersonic fuel spray and configurations of induced shock waves [O] . Yong Wang, Yu-song Yu, Guo-xiu Li, -1
• 5. Kinematics of the Solid Particle Accelerated by a Flow of Gas in a Supersonic Nozzle and Work Hardening of the Processed Surface [O] . A. I. Dolmatov, S. V. Sergeev, M. O. Kurin, 2016
• 6. Method of Accelerating a Gas Flow to Hypersonic Velocities with the Aid of a Jet Nozzle [R] . Ladyzhenskii, M. D. 1965

• 1. Extreme matter compression caused by radiation cooling effect in gigabar shock wave driven by laser-accelerated fast electrons [J] . S.Yu.Gus’kov ,P.A.Kuchugov ,G.A.Vergunova . 极端条件下的物质与辐射（英文） . 2021,第2期
• 2. A Computational Study of the Gas-Solid Suspension Flow through a Supersonic Nozzle [J] . Jian Guo Sun ,Heuy Dong Kim ,Jin Ouk Park . 流体动力学（英文） . 2012,第4期
• 3. Time Characterization of High Density Gas Jet from a Pulsed Supersonic Nozzle via Laser Produced Plasma [J] . 颜立新 ,张永生 ,马莲英 . 等离子体科学与技术：英文版 . 2006,第4期
• 4. Numerical Investigation of a Shock Accelerated Heavy Gas Cylinder in the Self-Similar Regime [J] . Bing Wang ,Jing-Song Bai ,Tao Wang . 天文学与天体物理学国际期刊（英文） . 2015,第1期
• 5. 在爆炸与冲击条件下构件的加速度测量与加速度传感器的标定 [C] . 黄正平 ,龙仁荣 . 第十届全国冲击动力学讨论会 . 2011
• 6. 超声波与椎动脉血流加速度时间变化相关性的分析研究 [A] . 马丽景 . 2016