Experiments were done to probe into the characteristics of APD. The relationships between avalanche voltage, dark current, photocurrent, NEP and temperature were educed separately.
通过实验探讨了APD的温度特性，得到了APD的雪崩电压、暗电流、光电流、等效噪声功率与温度的关系。
Ultra fast low-loss controlled avalanche rectifier. Repetitive peak reverse voltage 150 V. Average forward current 2.4 A.
超快速低损耗控制雪崩整流。重复峰值反向电压150V的平均正向电流2.4A。
A method for making high voltage, high-speed switches with home-made avalanche transistors 3dg84i or 3da152e is described Their applications in laser techniques are also presented.
介绍分别用国产晶体管3dg84i及3da152e组成雪崩管串制成高压快速开关的方法，及这种开关在激光技术中的应用。
The SPD R&D includes five modules: SPD bias voltage, pre-amplification, avalanche signal extraction, temperature control and digital control circuit.
将单光子探测器的研制分为偏置电压、前置放大、雪崩信号提取、温度控制和数字控制电路五个模块。
The simulation analysis indicates that with this structure the avalanche breakdown voltage of RF power transistors can be increased to be over 90% of that for an ideal parallel .
模拟分析表明 ，采用该结构 ，器件的雪崩击穿电压能提高到理想平行平面结的 90 %以上 ，器件的大电流特性和频率特性也有所改进 。
Simulate the avalanche circuit in series with PSPICE module, design the high voltage short plus generation circuit by avalanche transistor in series for the sweep deflection circuit of streak camera.
运用PSPICE模型对串联雪崩电路进行了仿真，设计出了用雪崩三极管串联的高压短脉冲产生电路，该电路可以用于条纹相机中的扫描电路。
In this paper the influences of ambient temperature and bias voltage on avalanche photodiodes' (APDs') responsivity are analysed, and the ways of decreasing the influences are discussed.
本文就如何减小温度对雪崩光电二级管响应度的影响进行了研究。
PN junction is the foundation of almost all the power devices. The avalanche breakdown voltage of PN junction determines the work voltage range of related power devices.
PN结构成了几乎所有半导体功率器件的基础，其雪崩击穿电压直接决定了相关器件的工作电压范围。
The common models to explain APGD are electron avalanche model and streamer discharge model. APGD and DBD can be distinguished by voltage-current waveform and voltage-charge Lissajous figure.
重点阐述大气压下辉光放电（APGD）技术的现状，解释了电子雪崩模型和流注放电理论，并以电压- 电流波形图和电压-电荷李萨育图鉴别介质阻挡放电与大气压下辉光放电。
The common models to explain APGD are electron avalanche model and streamer discharge model. APGD and DBD can be distinguished by voltage-current waveform and voltage-charge Lissajous figure.
重点阐述大气压下辉光放电（APGD）技术的现状，解释了电子雪崩模型和流注放电理论，并以电压- 电流波形图和电压-电荷李萨育图鉴别介质阻挡放电与大气压下辉光放电。
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