峰值电压

  • 网络peak voltage;Vpk;vmp
峰值电压峰值电压
  1. 通过实验得到荷电电参数变化(脉冲荷电峰值电压Vp、脉冲输出波形、脉冲重复频率f)、不同荷电凝并时间与凝并效率之间的关系;

    By task , the relation between charging parameters including impulse peak voltage , voltage output shape , agglomeration time and flux and agglomeration efficiency .

  2. 从基本电路的分析出发,推出了补偿后的输出电压、平顶峰值电压、峰值电压出现时间以及平顶时间同电压补偿系数k和放电时间常数比λ间关系式和曲线族。

    The formulas for output voltage , peak voltage , peak voltage time and flat top duration are derived from the analysis of the basic circuit , and a set of curves is given .

  3. 研究表明,通过峰值电压Up和频率f的优化组合,可获得理想的η;

    The results in this paper shows that the high degradation rate could be got by the optimum combination of voltage and frequency .

  4. 在此基础上,对n2激发电子态c3∏u的有效振动温度随负脉冲电晕放电的峰值电压、样品气压的变化进行了实验研究。

    The change tendency of available vibrational temperature of N_2 C3 ∏ _u excited state with discharge voltage and sample pressure is studied .

  5. 其中只要测电容和电阻两端峰值电压、测流过电容的最大电流、电容电压的变化率、测电容上电流和电压的相位差或测LC谐振频率都可以得到电容的容量。

    Capacitor 's capacity can be measured by resistance value , volt top-top value between capacitor , the biggest capacitor 's electric current value and the smallest volt changing-ratio , phase difference or LC resonance frequency .

  6. 对模拟印染废水的实验研究表明:当脉冲峰值电压达38kV时,脱色率不受试样pH值影响,在处理40s后,脱色率达95%以上;

    The results showed that the decolorization rate can be reached more than 95 % by treating wastewater for 40 s at pulse peak voltage of 38 kV and there is influence , of pH value on decolorization rate .

  7. 反应器气相分别使用氧气、空气、氩气、氮气4种气体。测定改变脉冲峰值电压、处理时间、溶液电导率和溶液pH,对过氧化氢和臭氧形成的影响。

    The effects of pulse peak voltage , treatment time , pulse frequency and solution pH on the formation of hydrogen peroxide and ozone were also investigated by the separate introduction of four different gases ; oxygen , air , argon and nitrogen above the liquid in the reactor .

  8. 结果表明,脉冲峰值电压增高,脉冲频率增大,针尖与水面的距离(ds)减小,注入反应器中的能量增大。

    The results found that the higher the pulse peak voltage or pulse frequency , or the closer the distance between the water surface and needle tips ( ds ), the greater the input energy and input power into the reactor .

  9. 通过溶剂吸收采样,并用气相色谱(GC)分析测定,考察了有机物的初始浓度、输入电压、脉冲峰值电压等因素对去除率的影响。

    The samples are analyzed by gas chromatography ( GC ), that VOCs are absorbed by a kind of solvent , using this method , the research examined are the influences on the removal efficiency of VOCs by concentration , input voltage and pulsed peak voltage .

  10. VOCs去除率的高低随VOCs初始浓度、输入电压、脉冲峰值电压等因素的变化而变化,但各因素对去除率影响的程度不同。

    The researches show : The removal efficiency of VOCs changes when the inlet concentration , the input voltage or the pulsed peak voltage changes . However , the effect of each factors has different extent of the removal efficiency .

  11. 研制的自适应Synergic脉冲MIG焊微机控制系统,用光电码盘提取送丝速度信号,同时取脉冲峰值电压作为电弧电压反馈信号。

    A microcomputer controlling system for self-adaptive synergic pulse MIG welding has been developed . The system uses a photoelectric coding disk to sample wire feeding signals and takes the pulse amplitude as the feedback signal for arc voltage .

  12. 提出了用于加工大面积PCD复合片的理想电源模型,其特点为:大能量、高峰值电压、高峰值电流、窄脉冲、等脉冲能量输出。

    An ideal power supply model , which has advantages such as high energy , high peak voltage , high peak current , small pulse width and equal output of pulse energy for machining large diameter PCD was put forward .

  13. 数值模拟结果表明:在施加峰值电压为80kV,放电极半径为0.2cm,线-板间距为10cm时,线线最佳间距为6~8cm。

    The simulation results show that the optimum wire-to-wire spacing is 6-8 cm when the applied voltage is 80 kV , the discharge wire radius is 0.2 cm , and the wire-to-plate spacing is 10 cm .

  14. 根据不同时刻的记录,基频腔峰值电压与束流流强探测器BCT3所测流强值近似成正比关系;

    The electron beam current measured by the beam current monitor ( BCT3 ) is almost in direct proportion to the induced voltage of the fundamental harmonic .

  15. 可将触发脉冲峰值电压由16KV降到7KV左右,预燃储能电容初始电压由1.4KV降到900V。

    It is the result that the triggered pulse peak voltage fell to about 7 KV from 16 KV and the initial voltage of energy storage capacitors dropped to 900 V from the initial 1.4 KV .

  16. 研制成功输出峰值电压从5~80V连续可调的脉冲信号发生器,信号上升沿小于10ns。利用该信号源,可将压电和铁电陶瓷材料中的快和慢效应完全分开。

    A nano-second order pulse signal generator was developed , its peak output voltage can be adjusted smoothly from 5 to 80 V. By using this generator , the fast effect and slow effect of a certain piezoelectric or ferroelectric sample can be clearly separated .

  17. 工频峰值电压测量方法的误差分析

    The Error Analysis of Peak voltage Measurement of the Industrial Freguency

  18. 单相和三相电路的峰值电压检测

    Detection of Peak Point Voltage for Single-Phase and Three-Phase Circuits

  19. 汽车点火线圈峰值电压测量仪的研制

    Development of Peak Voltage Survey Meter for Automobile Ignition Coil

  20. 环路延时对数字峰值电压控制开关变换器瞬态性能的影响

    Time Delay Effect on Transient Performance of Digital Peak Voltage Controlled Switching Converter

  21. 在电阻负载上获得了145×10~3伏的峰值电压。

    Under the condition of resistance load , the maximum voltage 145 103 V was obtained .

  22. 电路断态不重复峰值电压

    Circuit non-repetitive peak off-state voltage

  23. 新型冲击峰值电压表的研制

    Development of Impulse Peak Voltmeter

  24. 试验研究了峰值电压、气隙间距对臭氧产生的影响。

    Then the electric field intensity of ozone generation was simulated and analyzed for the first time .

  25. 电路反向工作峰值电压

    Circuit crest working reverse voltage

  26. 得到了峰值电压正比于激光能量的条件和结论。

    Conclusion and its condition are obtained , that signal peak voltage is directly proportionated with laser energy .

  27. 在实验和比较后,本文选择峰值电压和峰值电流作为融合的特征量。

    After experiments and comparison , peak voltage and peak current are selected as eigenvalues to classify discharge conditions .

  28. 关于具有电容分压器的整流式交流峰值电压测量装置的参数选择

    The Choice of Circuit Parameters for the Measuring Equipment of Rectified Alternative Peak Voltage Possessing the Capacitance Voltage Divider

  29. 这个峰值电压设置为阈值电压,用来计算仪器的电压响应曲线。

    This peak voltage setting becomes the threshold used for calculation of the voltage response curve for the instrument .

  30. 喷油驱动器信号也为脉宽调制信号,选取喷油时间和峰值电压等为特征;

    Fuel injection signal is also pulse width modulating signal , which chooses injection time and peak value , etc ;