总压损失的英文

• pitot loss

• "总"英文翻译    assemble; gather; put togeth ...
• "压"英文翻译    press; push down; hold down; ...
• "损失"英文翻译    lose
• "总压损失系数" 英文翻译 :    total-pressure loss ratio
• "喷管总压损失系数" 英文翻译 :    nozzle total-pressure loss ratio
• "进气道总压损失系数" 英文翻译 :    air inlet duct total-pressure loss ratio
• "燃烧室总压损失系统" 英文翻译 :    combustion chamber total-pressure loss ratio
• "变压损失" 英文翻译 :    transformation loss
• "电压损失" 英文翻译 :    loss of voltage; voltage loss
• "动压损失" 英文翻译 :    dynamic pressure loss; momentum pressure loss
• "风压损失, 漏气" 英文翻译 :    air loss
• "静压损失" 英文翻译 :    static pressure loss
• "全压损失" 英文翻译 :    pitot loss
• "水压损失" 英文翻译 :    head loss
• "液压损失" 英文翻译 :    hydraulic loss; hydraulic slip; hydraulic-pressure loss
• "予压损失" 英文翻译 :    preload loss
• "总压力损失" 英文翻译 :    loss of total pressure; ltp; total pressure loss
• "总压头损失" 英文翻译 :    loss of total head
• "板碳电压损失" 英文翻译 :    plate to carbon voltage loss
• "环空泵压损失" 英文翻译 :    annular pressure loss; anti-burning mechanical draft cooling tower
• "母线电压损失" 英文翻译 :    bus voltage loss
• "无功电压损失" 英文翻译 :    loss of reactive voltage
• "钻杆泵压损失" 英文翻译 :    pressure loss in drilling rod
• "钻头泵压损失" 英文翻译 :    pressure loss in bit
• "变压损失；变换损失" 英文翻译 :    transformation loss

• Acoustics - laboratory measurement procedures for ducted silencers and air - terminal units - insertion loss , flow noise and total pressure loss
  声学.管道消音器和气体终端设备的实验室测量步骤.插入损失流动噪声和总压损失
• Acoustics - laboratory measurement procedures for ducted silencers and air - terminal units - insertion loss , flow noise and total pressure loss
  声学.管道消音器和空气终端装置的实验室测量步骤.插入损失流动噪声和总压损失
• Effects of blade negative bowing on secondary flow , total pressure loss and outlet flow angle were analyzed quantitatively , mechanism of the effects was discussed as well
  定量地分析了叶片反弯曲对叶栅出口二次流、总压损失和气流角的影响，并探讨了叶片反弯曲作用的机理。
• Characteristics of flow - field , total pressure loss / reduction , species distribution ; parameters of reactive domain and mixing mechanism of reactant streams have been investigated . ssg ( small signal gain ) coefficient , utilization of f atom and heat release in reaction have been computed
  讨论了该类喷管的流场特征、组分分布特点、总压损失特征、反应区流场参数和反应流混合机理，并对小信号增益系数、 f原子利用效率和反应放热进行了计算。
• Abstract : optimum distances between primary nozzle exit and mixing tube inlet , static pressure recovery of the mixing flow in mixing tube 、 total pressure distributions at the exit of mixing tube 、 pumping coefficients and total pressure losses of the exhaust ejector systems with four different types of primary nozzles have been measured in the experiments
  文摘:对4种主喷管组成的排气引射系统的引射系数和总压损失、各主喷管出口与混合管进口之间的最佳间距、混合气流在混合管内的静压恢复及混合气流在混合管出口处的总压分布等进行了测量和对比。
• Then , the one dimensional model is used to study on some factors ( viscosity , the heat given out by the chemical reaction in the chemical laser ) which bring the loss of the total pressure . the answer shows that increasing the mach number at out of the nozzles in the laser can reduce the loss of the total pressure
  在此基础上,用简化的一维模型研究了引起激光器总压损失的几个要素,它们是:喷管的粘性损失,光腔内的放热化学反应。研究的结果表明,提高喷管出口马赫数有利于减少这些因素导致的总压损失。
• Secondly , the cfd method is used to study the flowfields in the laser chamber and the loss of the total pressure in several types of nozzles . the answer shows that reducing the length of the nozzles and the high of the throats in the nozzles can reducing the loss of the total pressure . and the answer also shows that the small nozzles with helium injected in the base region are good for laser chamber pressure recovery
  其次,本文利用cfd技术模拟了光腔流场,研究了几种喷管的总压损失特性。研究结果表明,对于平面对称喷管,减小喷管长度,增加喉道高度有利于减少总压的损失。用cfd技术对光腔段的模拟表明,采用小尺寸喷管,并且在基区大量注入氦气有利于激光器压力恢复。
• The mixing degree model was established to study the mixing progress of primary and secondary flow . the loss elements of all zones were deeply analyzed and thus the quantitative loss models based on total pressure loss and entropy increase respectively were constructed . the results show that the performance loss magnitude and distribution in ejecting mode of rbcc can be better described by the quantitative loss model expressed by entropy increase
  提出用掺混度模型来研究一次流与二次流的掺混程度，并深入分析了各流动区域的损失因素，建立了以总压损失和熵增分析为基础的损失量化分析模型，计算的结果表明，采用熵增模型描述的损失因子能量化反应引射掺混损失的分布和大小。