使用新测试结构预测实际器件中的暗电流

K. Shibusawa, N. Murakami, T. Mori, T. Ajioka
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引用次数: 0

摘要

为了将实际器件中的暗电流划分为与器件结构相对应的5个分量,设计了一种由4个栅极控制二极管(GCDs)和2个不同尺寸的结二极管组成的测试结构。栅极偏置和温度依赖性表明,来自体块的扩散电流在区域内占主导地位。在硅(LOCOS)的局部氧化边缘和栅极边缘观察到G-R电流。将该方法应用于CCD器件,可以预测实际器件中的暗电流。研究发现,动态随机存储器(DRAM)在一个刷新周期内积累的噪声电子随着DRAM的产生而增加,其主要成分来源于源场边界区
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Prediction of dark currents in actual devices using new test structure
A test structure with four gate-controlled diodes (GCDs) and two junction diodes (with different dimensions) is designed in order to divide a dark current in actual devices into five components corresponding to device structure. Gate bias and temperature dependence reveal that the diffusion current from bulk is dominant in area regions. The G-R current is observed in the local oxidation of silicon (LOCOS) edge and gate edge. When applied to a CCD device, this method can predict the dark current in actual devices. It is found that the noise electron accumulated in one refresh cycle in dynamic RAMs (DRAMs) is increased according to DRAM generation, and that the main component originates from the source/field border region.<>
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