概括
这项研究解决了关于光子晶体捕捉光计算的评论中的不准确性. 我们澄清了数值方法和实验数据,证实了收点的最小光吸收.
科学领域:
- 光学和光子学 在光学和光子学.
- 计算物理 计算物理
背景情况:
- 最近的一篇评论歪曲了数值计算和对光子晶体中光捕获的实验测量.
- 关于被困光和吸收水平的强度,发现了差异.
研究的目的:
- 为了反驳关于我们发表的作品的评论中提出的不正确的断言和猜测.
- 为了澄清数值FDTD (有限差异时间域) 计算和实验测量.
- 为了纠正原始手稿中一个排版错误.
主要方法:
- 直接比较COMSOL FEM (有限元法) 和FDTD计算.
- 对数值FDTD收平原的分析.
- 实验EQE (外部量子效率) 和吸收率数据的评估.
主要成果:
- 证实,只有非常低的相对强度的被困光留在光子晶体在数值FDTD收.
- 量化了MAPD (最大绝对百分比差异) 在1100nm和1200nm之间高估的程度.
- 确定了实验和计算光学特性之间的差异来源.
结论:
- 评论中关于光吸收和数值准确性的断言在很大程度上是毫无根据的.
- 我们的数值和实验结果是一致的,表明在指定的条件下光吸收最小.
- 提供的澄清解决了差异,并纠正了轻微的错误.
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