Transparent Oxide Thin Films and Organic Photovoltaic Materials
This community develops transparent conductive oxide thin films and organic semiconductor materials for use in photovoltaic devices, thin-film transistors, and flexible electronic components.
The work centers on the synthesis and characterization of zinc oxide, indium tin oxide, and tin oxide thin films, often using magnetron sputtering, atomic layer deposition, or spray pyrolysis. A parallel strand focuses on organic solar cells, specifically the design of non-fullerene acceptors and donor-acceptor blends to optimize efficiency and stability. These materials are integrated into flexible substrates and transparent electrodes for applications in solar energy conversion and low-power electronics. Recent high-impact studies detail molecular structures achieving efficiencies above 20% in organic photovoltaics, while others examine the electrical performance of doped oxide transistors and the conductivity of silver nanowire networks.
The largest share of this research is found in indium, accounting for 16.2% of all indium research tracked, and tin, representing 14.9% of tin research. Zinc research contributes 7.1% of its total output to this community.
The community comprises 52,906 papers, published primarily in Thin Solid Films, Applied Physics Letters, and the Journal of Applied Physics.
Recent work continues to refine non-fullerene acceptor structures for high-efficiency organic solar cells and explores scalable polymer solutions for large-area semitransparent photovoltaics. Concurrently, studies address the stability and conductivity of doped oxide thin-film transistors and the integration of silver nanowires into flexible conductive networks.