bernoullis equation中文是什么意思

• 伯努利方程

• "equation"中文翻译    n. 1.平衡，均衡；平均，相等。 2.【数学】方程式， ...
• "bernoullis hypothesis" 中文翻译 :    伯努利假定
• "bernoullis law" 中文翻译 :    伯努利定律
• "bernoullis theorem" 中文翻译 :    伯努里定理; 伯努利定理; 伯努利理论
• "by equation" 中文翻译 :    按方程式
• "equation" 中文翻译 :    n. 1.平衡，均衡；平均，相等。 2.【数学】方程式，等式。 3.【天文学】(时)差；均分，等分。 4.【化学】反应式。 algebraic [linear, simple, quadratic, cubic, simultaneous] equation 代数(一次，一元一次，二次，三次，联立)方程式。 differential equation 微分方程。 an identical equation 恒等式。 equation of light 【天文学】光行时差。 equation of payments 平均分期付款。 equation of state 【物理学】物态方程式。 equation of time 【天文学】时差。 personal equation 【天文学】观测上的个人误差。
• "equation of" 中文翻译 :    次方程
• "response equation; equation; reluctance" 中文翻译 :    反应式
• "a ell equation" 中文翻译 :    阿佩尔方程
• "abbreviated equation" 中文翻译 :    简化方程; 简写方程式
• "abel equation" 中文翻译 :    阿贝耳方程
• "abelian equation" 中文翻译 :    阿贝耳方程
• "absorption equation" 中文翻译 :    吸收方程
• "accounting equation" 中文翻译 :    （会计恒等式）：资产＝负债＋所有者权益。; 会计程序; 会计等式：资产 = 负债 + 业主权益; 会计方程式, 会计恒等式; 会计方程式,会计等式; 会计恒等式
• "adiabatic equation" 中文翻译 :    绝热方程式
• "adjoint equation" 中文翻译 :    伴随方程
• "adopting by equation" 中文翻译 :    等同采用; 等效采用
• "adsorption equation" 中文翻译 :    吸附方程; 吸附公式
• "age equation" 中文翻译 :    费米年龄方程
• "algebraic equation" 中文翻译 :    代数方程
• "allen equation" 中文翻译 :    艾伦方程式
• "allometric equation" 中文翻译 :    开度量方程
• "allometry equation" 中文翻译 :    开度量方程
• "analysis equation" 中文翻译 :    分析公式（方程）
• "angle equation" 中文翻译 :    角方程

• A new method to prove bernoulli equation
  改进伯努利方程实验仪的原理及实验方法
• The solutions relation for riccati and bernoulli equations
  方程的解关联
• Deduction of bernoulli equation at non - inertial reference frame
  非惯性参照系下的伯努利方程式的推导
• Bernoulli equation in human body
  人体中的伯努利方程
• Reconstruction and facture of the demonstration device for bernoulli equation
  柏努利方程演示实验装置的改造和使用
• Development of a comprehensive fluid mechanic experimental tool is developed based on experiment tool of bernoulli equation
  基于伯努利方程实验仪的流体力学综合实验仪研制
• The eigenvalues ofjacobian matrix are derived and the stability condition is also presented . according to the bernoulli equation , similar to compressible calculations , pressure damping is introduced to accelerate convergence
  推导了euler方程通量矢量的jacobian矩阵在直角坐标系和曲线坐标系下的特征值，并由此导出相应的稳定性条件。
• The cause of vacuum degree formation under groundwater table is discussed in the paper . the testing results show that vacuum degree above the groundwater table is produced directly by pumping air , and that vacuum degree below groundwater table is produced mainly by dewatering and by escaping of sealed air from the end of flexible pipe . based on the bernoulli equation , the limit lowering of groundwater table is analyzed , which is about 5 ~ 7m . the effective influence depth of vacuum preloading has relationship with pvds depth and can be more than 10m
  对地下水位线以下的真空度成因进行了分析，结果表明，地下水位线以下测到的真空度是由于测试软管中水位下降或部分封存气体从软管末端逃逸引起的，与地下水位线以上的真空度由抽气直接形成在成因上存在不同；根据伯努俐方程，对地下水位下降的极限深度进行了分析，得出真空预压中地下水位的极限下降深度为5 7m ；对有效影响深度的分析结果表明，真空预压的有效影响深度与塑料排水板的打设深度具备一定关系，有效影响深度可以超过10m 。
• At this time , the approximate mechanical model of devices has been put forward , which frequency is 70 mhz , then we analyzed the euler ? bernoulli equation , find that the frequency is determined by the resonator ’ s density thickness and length ; the free - free - beam 、 coupled beam 、 support beam 、 transducer have been designed ; the model was simulated and modal analyzed on the coventorware and were consistent with the designed parameter . the silicon surface microfabrication process was developed and emphatically introduced several key surface microfabrication technologies , and was simulated by coventorware
  本文通过分析欧拉-贝努立方程,得出滤波器的共振频率主要由谐振梁的密度、厚度和长度决定,考虑切变形和转动惯量的情况下,完成微机械谐振梁、支撑梁、驱动电容的设计;在coventorware软件上进行仿真,分析结果与理论设计比较好地吻合;对微机械滤波器的加工工艺进行设计,给出器件的完整的工艺流程,重点介绍微机械表面加工工艺,并在coventorware上进行仿真。
• Through application investigation of dosing subsystem and utilizing principle of fluid mechanics ( bernoulli equation ) , quantitative dosing device was produced to measure chemical dosage , so as to settle the problem that metering pumps and electromagnetic flow meters widely used in water plants now have a very high requirement in technique and a very high cos t in maintenance . this device is easy to control , simple in maintenance and low in cost ; functionally it can substitute for metering pumps and electromagnetic flow meters used in system
  通过对投加子系统的应用研究，针对目前在水厂普遍使用的投加计量泵、电磁流量计技术要求和维护维修成本高等问题，运用流体力学(伯努利方程)的原理制作定量投液装置对药液加量进行投加计量；该装置易于控制，维护维修简单、成本低廉，功能上能取代系统中使用的计量泵和电磁流量计。