Efficient Organic Photovoltaics Enabled by Aqueous Ammonia-Based Doped Copper Thiocyanate Hole Transport Layer

Yuliar Firdaus, N. Nursam, L. Muliani, Shobih
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Abstract

The efficiency of organic photovoltaics (OPVs) has been significantly increasing over the past few years, primarily due to the advent of new active layer materials and carrier-selective charge transport interlayers. Many recent research efforts are currently directed toward developing hole transport layers (HTLs) to replace (PEDOT:PSS), which is still broadly utilized as HTLs for standard structure OPVs. Despite the promising features of PEDOT:PSS, the high acidity of the PSS chain is known to compromise the stability of the devices. To address this issue, we propose alternative HTL materials. This study uses copper (I) thiocyanate (CuSCN) prepared from aqueous ammonia solvent as the HTL in efficient nonfullerene-based OPVs. To further increase the efficiency of the CuSCN-based OPVs, we also explore the possibility of adding copper (II) chloride (CuCh) inorganic salt dopant into the CuSCN solution.
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氨基掺杂硫氰酸铜空穴传输层实现高效有机光伏
在过去的几年中,有机光伏(opv)的效率显著提高,这主要是由于新的活性层材料和载流子选择性电荷传输中间层的出现。最近的许多研究工作都是针对开发空穴传输层(HTLs)来取代(PEDOT:PSS),后者仍然被广泛用作标准结构opv的HTLs。尽管PEDOT:PSS具有很好的特性,但已知PSS链的高酸度会损害设备的稳定性。为了解决这个问题,我们提出了替代的html材料。本研究采用氨水溶液制备的硫氰酸铜(CuSCN)作为高效非富勒烯基OPVs的HTL。为了进一步提高CuSCN基OPVs的效率,我们还探索了在CuSCN溶液中加入氯化铜(CuCh)无机盐掺杂的可能性。
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