Fragment Molecular Orbital Simulations of Organic Charge Transport Materials : A Feasibility Study

I. Fujino, D. Fedorov, K. Kitaura, H. Hirose, Nobuyuki Nakayama
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引用次数: 4

Abstract

When we analyze electronic properties of charge transport materials by quantum chemical simulation, computational cost is high for large molecular systems. A fast quantum chemical simulation method, called fragment molecular orbital(FMO)method, has been applied intensively to biological macromolecules. In order to apply FMO materials, one has to test various fragmentations(division of the molecular system into fragments)and find the best scheme. For biochemical systems, such tests have been previously conducted and in this work, an appropriate fragmentation is reported for charge transport materials. Therefore, we examined the computational efficiency and accuracy of FMO for two types of charge transport materials, in which fragments are standalone molecules and in which fragments are connected by covalent bonds, and verified that our fragment models are adequate for practical use.
有机电荷输运材料的片段分子轨道模拟:可行性研究
在利用量子化学模拟方法分析电荷输运材料的电子性质时,对于大分子系统的计算成本很高。片段分子轨道(FMO)方法是一种快速量子化学模拟方法,已广泛应用于生物大分子。为了应用FMO材料,必须测试各种片段(将分子系统划分为片段)并找到最佳方案。对于生化系统,以前已经进行了这样的测试,在这项工作中,对电荷传输材料进行了适当的碎片化。因此,我们考察了片段为独立分子和片段通过共价键连接的两种类型的电荷输运材料的FMO计算效率和准确性,并验证了我们的片段模型足以用于实际应用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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