基于bjt的无电容DRAM单元缩放限制的变化感知研究

M. H. Cho, W. Kwon, N. Xu, T. K. Liu
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引用次数: 0

摘要

考虑到系统和随机的变化源,通过三维工艺和器件模拟研究了基于bjt的无电容DRAM单元的缩放极限。电池设计和工作电压在每个栅极长度进行优化,遵循恒定电场方法。保留时间随着栅极长度的增加而减少,因此缩放极限预计为16.5 nm或13 nm,具体取决于应用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Variation-aware study of BJT-based capacitorless DRAM cell scaling limit
The scaling limit of the BJT-based capacitorless DRAM cell is investigated via 3-D process and device simulations, accounting for systematic and random sources of variation. The cell design and operating voltages are optimized at each gate length, following a constant electric field methodology. Retention time decreases with gate length, so that the scaling limit is expected to be 16.5 nm or 13 nm, depending on the application.
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