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激波强度 meaning in English

shock-wave amplitude
shock-wave intensity
shock-wave strength

Examples

  1. The results of experiments revealed explosion suppression of water sprays . the effects of spray concentration , average diameter of particle and shock velocity on explosion suppression have been discussed
    系统研究了液雾对爆炸波的抑制作用,并讨论了液雾的浓度、雾粒直径、激波强度对抑爆效果的影响。
  2. Such a response depends on the strength of the interplanetary shock : for a stronger shock , the new region current gets stronger , extends for a longer distance towards the equator , and reaches a lower latitude
    这一响应过程和行星际激波强度有关:激波强度越强,新生的区场向电流也越强,它向赤道方向延伸的距离也越大,能到达的纬度也越低。
  3. Experiments are conducted in a 5 m long , 60x60 mm cross - section shock tube , liquid drops acted by shock wave undergo deformation , breakup and atomization . based on experiments , the effects of shock velocity and drop diameter on drop breakup time have been discussed
    采用ya ? 16高速照相机,详细研究了液滴在激波作用下变形、剥离、破碎、雾化的全过程,并讨论了液滴的破碎模式、激波强度和液滴直径对液滴破碎时间的影响。
  4. The characteristic of the forming of shock wave in the tube and the influence of the shock wave intensity on cooling effect was also analyzed in working time . the reason why the cooling efficiency was lower in low rotate speed and has no change in high rotate speed was revealed
    分析了振荡管实际工作时管内激波形成特点及激波强度对冷效应的影响,指出了实际压力波制冷机在低转速下运行时制冷效率很低而在高转速下制冷效率变化不大的内在原因。
  5. In this dissertation , the pulse jet style , the influence on the shock wave , the flow in the tube and the cooling effect was deeply studied theoretically and experimentally . the influence of the pulse jet style on the forming of shock wave and the shock wave intensity was explored . the initial disconnection style in oscillating tube vented and the initial disconnection breakdown was proposed by different pulse jet style
    本文对脉动射流的型式及其对激波、管内流动及冷效应的影响进行了较系统的理论和实验研究,主要包括:探讨了脉动射流的型式对形成管内激波形成及激波强度的影响,给出了不同脉动射流的型式下振荡管开口端初始间断的类型,对初始间断进行了分解,导出了包含进气、排气参数及工质物性参数的管内入射激波马赫数mj的表达式,给出了管内激波形成的三种原因及其所对应的脉动射流型式和具体的工作状态。
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Related Words

  1. 激波失速
  2. 压缩激波
  3. 附体激波
  4. 激波倾斜角
  5. 激波结构
  6. 激波增温
  7. 激波脱离
  8. 点火激波
  9. 曲激波
  10. 激波能量
  11. 激波前沿
  12. 激波前沿厚度
  13. 激波强度效应
  14. 激波倾斜角
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