The Finite Difference Solution of Two- and Three-Dimensional Semiconductor Problems on the Connection Machine

K. Dalton, E. Hensel, S. Castillo, K. Ng
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Abstract

A study of the finite difSerence solution of the nonlinear partial differential equations governing twoand three-dimensional semiconductor devices is conducted on a SIMD computer. This nonlinear system is solved using Jacobi iteration and successive-under-relaxation. Row scaling and a zero order regularizer are used to aid in convergence. On a 16K CM-2 problems with up to 16.7 million unknowns have been solved. Problems of this size have not previously been reported. The ability to accurately model larger and more realistic three-dimensional devices is necessary to gain a greater physical understanding of their behavior.
二维和三维半导体问题在连接机上的有限差分解
在SIMD计算机上对二维和三维半导体器件非线性偏微分方程的有限差分解进行了研究。采用雅可比迭代法和连续欠松弛法求解该非线性系统。使用行缩放和零阶正则化器来帮助收敛。在16K CM-2上,已经解决了多达1670万个未知数的问题。这种规模的问题以前从未报道过。为了对它们的行为有更深入的物理理解,精确地模拟更大、更逼真的三维装置的能力是必要的。
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