基于Ullazine的小分子有机太阳能电池的光电特性设计

IF 3 4区 生物学 Q2 BIOCHEMICAL RESEARCH METHODS
Zeeshana Bibi , Javed Iqbal , Ali Raza Ayub , Sehrish Gul , Amna Ayub
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引用次数: 0

摘要

在目前的研究中,利用噻吩桥接受体基团取代模型分子的受体基团,得到6个独特的小供体分子(标记为UAR, UA1, UA2, UA3, UA4, UA5, UA6)。对于我们的计算实验,我们依赖于B3LYP/ 6-31G (d,p)模型。UA6的λmax最大,因为它含有含氮、硫、羰基和氰基的受体片段。在所研究的分子中,UA1的电子迁移率最大,UA4的空穴迁移率最高。由于UA4具有较高的能量,其最高已占据分子能级(HOMO)为-4.61 eV,其电离势IP为5.71 eV,是所有合成化合物中最低的。已经证明,噻吩桥和端封受体改变是成功的,可以开发出具有特别吸引人的光电特性的光伏材料。未来可行的有机太阳能电池预计将利用目前计划中的所有精英捐助者的捐款来制造。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Design of the opto-electronic characteristics of organo-solar cells using the small molecules based on Ullazine

Design of the opto-electronic characteristics of organo-solar cells using the small molecules based on Ullazine
In the current research, thiophene bridged acceptor moieties are used to replace the acceptor group of the model molecule, resulting in six unique small donor molecules (labeled UAR, UA1, UA2, UA3, UA4, UA5, UA6). For our computational experiments, we have relied on the B3LYP/631G (d,p) model. The UA6 had the largest λmax because it contained nitrogen, sulfur, carbonyl, and cyano containing acceptor moiety. The electron mobility of UA1 was the greatest and the hole mobility of UA4 was the highest among the molecules studied. Due to its high energy highest occupied molecular energy level (HOMO) (-4.61 eV), UA4 displayed the lowest ionization potential IP (5.71 eV) of all the synthetic compounds we tested. It has been demonstrated that the thiophene bridge and the end-capped acceptor alteration are successful in allowing the development of photovoltaic materials with exceptionally attractive optoelectronic characteristics. Future viable organic solar cells are predicted to be made using all presently planned contributions from elite donors.
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来源期刊
Journal of molecular graphics & modelling
Journal of molecular graphics & modelling 生物-计算机:跨学科应用
CiteScore
5.50
自引率
6.90%
发文量
216
审稿时长
35 days
期刊介绍: The Journal of Molecular Graphics and Modelling is devoted to the publication of papers on the uses of computers in theoretical investigations of molecular structure, function, interaction, and design. The scope of the journal includes all aspects of molecular modeling and computational chemistry, including, for instance, the study of molecular shape and properties, molecular simulations, protein and polymer engineering, drug design, materials design, structure-activity and structure-property relationships, database mining, and compound library design. As a primary research journal, JMGM seeks to bring new knowledge to the attention of our readers. As such, submissions to the journal need to not only report results, but must draw conclusions and explore implications of the work presented. Authors are strongly encouraged to bear this in mind when preparing manuscripts. Routine applications of standard modelling approaches, providing only very limited new scientific insight, will not meet our criteria for publication. Reproducibility of reported calculations is an important issue. Wherever possible, we urge authors to enhance their papers with Supplementary Data, for example, in QSAR studies machine-readable versions of molecular datasets or in the development of new force-field parameters versions of the topology and force field parameter files. Routine applications of existing methods that do not lead to genuinely new insight will not be considered.
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