激光退火的高级模拟:爆炸结晶和声子输运修正

Alberto Sciuto, I. Deretzis, G. Fisicaro, S. Lombardo, A. Magna, M. Grimaldi, K. Huet, Bobby Lespinasse, Armand Verstraete, B. Curvers, I. Bejenari, A. Burenkov, P. Pichler
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引用次数: 2

摘要

目前的半导体器件制造通常需要在低热预算的情况下集成退火工艺步骤;其中,脉冲激光退火(LA)是一个可靠的选择。因此,LA专门技术计算机辅助设计(TCAD)模型的使用正在成为这种特殊加热方法发展的支持。无论如何,已经在学术或商业封装中实现的模型通常考虑一些近似值,如果它们应用于相当常见的纳米器件配置,即具有纳米宽元素的结构,其中也存在非晶口袋,则可能导致不准确的预测。特别是在这些情况下,可能发生非扩散热输运和爆炸结晶。在这里,我们提出了允许模拟这些现象的LA TCAD模型的升级。我们将证明这些模型可以可靠地集成到当前的TCAD软件包中,并在某些特定情况下讨论数值解特征的关键特征。
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Advanced simulations on laser annealing: explosive crystallization and phonon transport corrections
Current semiconductor device manufacturing often needs the integration of annealing process steps with a low thermal budget; and, among them, pulsed laser annealing (LA) is a reliable option. Consequently, the use of LA specialized Technology Computer Aided Design (TCAD) models is emerging as a support for the development of this particular heating methods. Anyway, models already implemented in academic or commercial packages usually consider some approximations which can lead to inaccurate predictions if they are applied in rather common configurations of nano-device: i.e. structures with nm wide elements where amorphous pockets are also present. In particular, in these cases non-diffusive thermal transport and explosive crystallization could take place. Here we present upgrades of the LA TCAD models allowing the simulation of these phenomena. We will demonstrate that these models can be reliably integrated in the current TCAD packages discussing the key features of the numerical solutions features in some particular cases.
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