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首页> 外文期刊>Nuclear Instruments & Methods in Physics Research >Simulation of ion beam induced current in radiation detectors and microelectronic devices
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Simulation of ion beam induced current in radiation detectors and microelectronic devices

机译:辐射探测器和微电子设备中离子束感应电流的仿真

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摘要

Ion Beam Induced Charge (IBIC) is the basic mechanism of the operation of semiconductor detectors and it can lead to Single Event Effects (SEEs) in microelectronic devices. To be able to predict SEEs in ICs and detector responses one needs to be able to simulate the radiation-induced current as the function of time on the electrodes of the devices and detectors. There are analytical models, which work for very simple detector configurations, but fail for anything more complex. Technology Computer Aided Design (TCAD) programs can simulate this process in microelectronic devices, but these TCAD codes costs hundreds of thousands of dollars and they require huge computing resources. In addition, in certain cases they fail to predict the correct behavior. Here a simulation model based on the Gunn theorem was developed and used with the COMSOL Multiphysics framework, version 3.5. In the model, the induced current can be calculated both directly and in certain cases using the powerful adjoint method. A brief description of the model will be given in the paper with examples for detectors and microelectronic devices using both the direct and the adjoint method.
机译:离子束感应电荷(IBIC)是半导体探测器工作的基本机制,它可以导致微电子设备中的单事件效应(SEE)。为了能够预测IC和检测器响应中的SEE,需要能够在设备和检测器的电极上模拟随时间变化的辐射感应电流。有些分析模型适用于非常简单的检测器配置,但不适用于更复杂的检测器。技术计算机辅助设计(TCAD)程序可以在微电子设备中模拟此过程,但是这些TCAD代码花费数十万美元,并且需要大量的计算资源。此外,在某些情况下,它们无法预测正确的行为。在这里,开发了基于Gunn定理的仿真模型,并将其与COMSOL Multiphysics框架3.5版一起使用。在模型中,感应电流可以直接计算,也可以在某些情况下使用强大的伴随方法进行计算。本文将对模型进行简要说明,并给出使用直接法和伴随法的检测器和微电子设备的示例。

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