英语人>词典>汉英 : 放电 的英文翻译,例句
放电 的英文翻译、例句

放电

基本解释 (translations)
discharge  ·  discharges

词组短语
electro-discharge
更多网络例句与放电相关的网络例句 [注:此内容来源于网络,仅供参考]

High voltage's discharge demonstrations include: Jacob elevator discharge, discharge along a surface, high frequency and high voltage discharge at long intervals, finger discharge, and circular discharge.

高压放电表演内容包括:雅各布电梯放电、沿面放电、高频高压长间隙放电、手指放电和环状放电等内容。

According to the conditions for the ESD spark and the figuration, the ESD sparks can be classified into six types: the corona discharge, the brush discharge, the cone discharge, the human physical discharge, the spark discharge and the propagation brush discharge.

根据放电火花的产生条件和形状特点,静电放电火花分为电晕放电、刷形放电、料仓堆表面放电、人体放电、火花放电和传播型刷形放电 6种典型放电类型。

Secondly, the discharge characteristics were investigated. As the RF power was switched on and the matching impedance suitably set, a pale-purple glow was initially generated near the wall. With increasing RF power, the pale glow evolved into bright white glow. Analysis of voltage and current wave forms suggested that both the voltage and current wave forms are predominately sinusoidal and discharge cycle was above 100 nanoseconds. Current-voltage curve showed that discharge current increase as voltage increase without any abrupt; The current-voltage phase angle suggested that the plasma evolved from being predominately capacitive to predominately resistive. Discharge mode was essential an abnormal glow discharge plasma.

其次对装置的放电特性进行了分析,从放电的现象看,随着放电功率的提高,放电颜色由开始的暗紫色过渡到亮白色;从电流-电压波形曲线图发现所有的放电电流和电压曲线都是正弦曲线,放电的周期达到上百个纳秒;从电流—电压曲线分析,电流随着电压的增长而增长,并没有发现任何的突变现象;从电压—电流相位角来看,随着电流的增大,相位角基本保持不变,整个电路表现出容性放电性质,但是电阻性成分已经很强,属于反常辉光放电区域。

Others desynchronized with 5-90 Hz primary depth electrographic after-discharges;(2) primary electrographic after-discharges were driven by primary unit after-discharges in the anterior dorsal HPC;(3) primary unit after-discharges were induced by brief primary electrographic after-discharges; and (4) plasticity of primary electrographic after-discharges and inhibition of single neuron firing were induced by repetitive ATPDH.

非同步性后放电的深部电图癫痫样电活动具有宽频带特征(5-90 Hz);(2)原发性单位后放-后抑制效应可以引发低频原发性电图后放电,长时程爆发式单位放电可以诱发高频原发性电图后放电;(3)短束原发性电图后放电也可以诱发原发性单位后放电;(4)原发性电图后放电和神经元单位放电的抑制效应具有明显可塑性特征。

The experimental results present that the three electrodes DBD is basically display filamentary discharge mode. The intermittent filament impulses of current wave of the comb-like electrode are unsymmetrical while that of the plate-plate electrode is symmetrical. And the multineedle-plate DBD displays diffuse conical mode.

实验结果表明:三种电极放电的形式不尽相同,但基本上以细丝放电为主要特征;在放电特性上,单面梳状电极DBD呈正负半周期内电流波形上加载非对称的电流脉冲群,双介质板电极DBD则是对称的电流脉冲群,而多针—介质平板电极放电电流波形上既加载了具有电晕放电特征的稀疏幅值大电流脉冲群,又加载了具有DBD放电特征的密集小幅值的电流脉冲群,表现为DBD和电晕放电相叠加的效果。

The dielectric barrier corona discharge in a wire-cylinder configuration and the dielectric barrier discharge in a coaxial cylinder configuration are investigated, then the dissipated power and gas gap voltage are calculated by analyzing the measured Lissajous figure.

采用同轴管状反应器产生介质阻档放电,采用同轴线管反应器产生局部电晕放电及介质阻档电晕放电,研究介质阻档放电与介质阻档电晕放电放电特性与脱硫能耗上的差异。

The lower end of the discharge chamber body is in hermetically-threaded connection with a fixed electrode; an operation electrode is mounted at the upper end of the discharge chamber body; the lower end of the operation electrode can be movably mounted in a conduction fixed ring; a fit clearance between the lower end of the operation electrode and the conduction fixed ring is 0.1 to 0.15mm; the conduction fixed ring is in hermetically-threaded connection with the upper end of the discharge chamber body; the conduction fixed ring is connected with a grounding wire; a discharge chamber is formed between the conduction fixed ring and the fixed electrode at the inner part of the discharge chamber body; the upper end of the operation electrode is fixedly connected with an insulation handle.

本发明公开了一种隔爆放电器,包括由防爆有机玻璃制成的筒形放电室本体,所述放电室本体的下端密封螺纹连接有固定电极;所述放电室本体的上端安装操作电极,所述操作电极的下端可移动地安装在导电固定环内,与导电固定环配合间隙为0.1~0.15mm,导电固定环密封螺纹连接在放电室本体的上端,导电固定环上连接有接地线;在放电室本体的内部导电固定环和固定电极之间形成放电室,所述操作电极的上端固接绝缘手柄。

Secondly, the pulse discharge plasma with allylamine was discussed, and the modification results with two kinds of discharge models were compared. The results showed that discharge models had influences on the plasma treatment results, especially under lower pressure and higher temperature with pulse discharge. The nitrogen element content in the layer under the pulse discharge was obviously lower than that under the continuous discharge, but there was higher proportion NH〓 groups remaining in the layer under the pulse discharge. The sample surfaces obtained by pulse discharge also had good biocompatibility.

其次讨论了脉冲放电模式下丙烯胺单体的等离子体修饰,比较了两种放电模式对修饰结果的影响,研究结果显示,放电模式对表面修饰层的结果有一定的影响,其中脉冲放电对低压及高温两等离子体条件下的影响尤为明显;脉冲放电下所得到的修饰层中的氮元素含量明显低于连续放电模式下,而脉冲放电下有较高比例NH〓基团保留在修饰层中;脉冲放电所得到的表面修饰层同样有较好的生物相容性。

In sparkle discharge ,following conclusions could be reached:(1) overall spectral intensity in nitrogen is lower than in oxygen . When water is added, integrality light intensity is lower compared with the pure gas condition.(2) No matter it is nitrogen or oxygen, when water is added, syllabify three spectral lines of atomic H: Hα(656.3nm), Hβ(486.1nm), Hγ(434.0nm) could be seen. What is more, when water is added into oxygen, the spectral line of H atom becomes stronger.(3) When discharge in pure nitrogen, the light intensity falls with the increasing gas flow rate. While if water is added, the light intensity will rises with the increasing gas flow rate.(4) When discharging in pure oxygen, the light intensity rises with increasing gas flow rate. While if water is added, with increasing gas flow rate the light intensity initially will change as this:first rise, then saturate at about 140l/h, finally falls.

在火花放电中:(1)氮气的整体光谱强度要弱于氧气的整体光谱强度,加水时的整体光谱强度比纯气体中放电小很多;(2)无论所通为氮气或氧气,加水时可以清晰的看到Hα(656.3nm),Hβ(486.1nm),Hγ(434.0nm)三条氢原子的谱线,而且在氧气加水的情况下产生的H原子的谱线要强些;(3)纯氮气中放电时随着气流量的增大放电光谱的强度随之降低,氮气加水放电时随着气流量的增大放电光谱的强度随之升高;(4)氧气放电时,随着气流量的增大,放电光谱的强度随之升高,氧气加水中放电时随着气流量的增大,放电光谱的强度开始随之升高,在140l/h时的值最高,接着就开始下降。

Considering the skin effect and skin depth, a thin wall model and a thick wall model are derived creatively with different frequencies of discharge currents, which are used to study the relation between the spark location and the potential difference for a cuboid electrode.

本文从放电电流为任意函数入手,阐述了电极电位差法的检测原理,首次利用傅立叶级数推导了电位差与放电时间的关系,证明了放电电流为阶跃函数时,电位差与放电时间成指数关系;当放电电流中含有高频振荡时,电位差与放电时间的关系为指数曲线上叠加相移后的高频振荡;根据放电电流频率的不同,考虑到趋肤效应和趋肤深度,首创了薄壁模型和厚壁模型,研究了长方体电极下表面二维放电点位置与电位差的关系。

更多网络解释与放电相关的网络解释 [注:此内容来源于网络,仅供参考]

abnormal glow:反常辉光放电,不规则辉光放电

abnormal current | 异常电流,事故电流 | abnormal glow | 反常辉光放电,不规则辉光放电 | abnormal glow discharge | 反常辉光放电

arc discharge:电弧放电, 弧光放电

auxiliary discharge 辅助放电 | ambipolar diffusion\\[物]双极扩散 | arc discharge\\电弧放电, 弧光放电

discharge, brush:刷形放电

discharge voltage 放电电压 | discharge, brush 刷形放电 | discharge, corona 电晕放电

discharge, brush:刷放电

自动放电 discharge, automatic | 刷放电 discharge, brush | 压缩气体放电 discharge, constricted gas

rd:放电电阻

150 pF ±10% 放电电阻(Rd): 330 欧姆 ±10% 充电电阻(Rc): 50M与100M欧姆之间 输出电压:接触放电8kV(标称值), 空气放电15kV(标称值) 输出电压示值的容许偏差:±5% 输出电压极性 正和负极性(可切换) 保持时间: 至少5s 放电,

spark discharge:火花放电

工厂生产过程中,静电会伴随著各种不同作业(如:原料入料、物料搅拌、成品输送或分装等)而产生,若静电蓄积至危险程度即会发生静电放电,造成危害事件. 在此介绍工厂制程中常见的静电放电类型:火花放电(Spark Discharge)及刷状放电(Brush Discharge).

bursting:簇放电

放电(bursting)节律是常见的一类神经放电形式, 其基本特征是重复放电状态与静息状态交替出现[3]. Bertram和Del Negro等根据簇放电内ISI的变化规律将其分为三种亚型,并分别在胰腺细胞、海兔(aplysia)的R15神经元、大鼠三叉神经节神经元等不同的可兴奋细胞上观察到,

discharge potential:放电电位,放电电势

"discharge point ","放电点,放电尖端" | "discharge potential ","放电电位,放电电势" | "discharge potential difference ","放电电位差,放电电压"

discharge potential difference:放电电压,放电电位差

discharge potential 放电电位 | discharge potential difference 放电电压,放电电位差 | discharge pressure 排出压力,出口压力,排气压力

discharge potential difference:放电电位差,放电电压

"discharge potential ","放电电位,放电电势" | "discharge potential difference ","放电电位差,放电电压" | "discharge process ","放电过程,泄漏过程"