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Improving Gain Efficiency in Planar Impact lonization Devices

机译:提高平面冲击电离设备的增益效率

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摘要

The Solid-state Impact-ionization Multiplier (SIM) was designed to amplify signals from arbitrary current sources through impact ionization. A primary application is amplification of signals produced by photodiodes. Photodiodes made from any semiconductor can be wired directly to the SIM's injection node. Previous versions of the SIM suffer from non-ideal impact ionization efficiency as a result of injected carriers drifting through the device's depletion region without passing through the highest electric field regions and undergoing ionization events. Low impact ionization efficiency can lead to an increased excess noise factor, temperature sensitivity, and voltage sensitivity. This manuscript describes increasing SIM ionization efficiencies by introducing an insulator between the SIM's injection and output electrodes, effectively directing the carriers into the highest electric field. This method has shown to greatly increase the impact ionization efficiency in simulation and experimental results. Ionization efficiency improvements are demonstrated primarily through decreases in voltage sensitivity.
机译:固态碰撞电离倍增器(SIM)旨在通过碰撞电离放大来自任意电流源的信号。主要应用是放大光电二极管产生的信号。由任何半导体制成的光电二极管都可以直接连接到SIM的注入节点。由于注入的载流子漂移通过器件的耗尽区而没有通过最高电场区并经历电离事件,因此先前版本的SIM遭受非理想的碰撞电离效率。较低的碰撞电离效率可能导致增加的过大噪声因子,温度敏感性和电压敏感性。该手稿描述了通过在SIM的注入电极和输出电极之间引入绝缘体,有效地将载流子引导到最高电场中来提高SIM的电离效率。在模拟和实验结果中,该方法已证明可以大大提高碰撞电离效率。主要通过降低电压灵敏度来证明电离效率的提高。

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  • 来源
  • 会议地点 Las Vegas NV(US);Las Vegas NV(US);Las Vegas NV(US)
  • 作者单位

    Department of Electrical and Computer Engineering, Brigham Young University, Provo,Utah 84602, USA;

    Department of Electrical and Computer Engineering, Brigham Young University, Provo,Utah 84602, USA;

    Department of Electrical and Computer Engineering, Brigham Young University, Provo,Utah 84602, USA;

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  • 原文格式 PDF
  • 正文语种 eng
  • 中图分类 材料;
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