Translucent perovskite solar cell electrode and preparation method thereof

Abstract

The invention relates to a translucent perovskite solar cell electrode and a preparation method thereof. The preparation method of the translucent perovskite solar cell electrode includes the following steps that: 1) a reduced graphene oxide solution is prepared; 2) a nano silver wire dispersion is prepared; 3) FTO glass covered with an electron transfer layer is placed on a heating table, a perovskite absorption layer is prepared on the surface of the FTO glass covered with the electron transfer layer, and the spin-coating of spiro is performed, so that a hole transport layer can be obtained,and the hole transport layer is coated with the nano silver wire dispersion, after the hole transport layer coated with the nano silver wire dispersion is dried, a nano silver wire electrode is obtained, and the reduced graphene oxide solution is applied between the spiro and silver wires, or a reduced graphene oxide layer is prepared above the silver wires, or reduced graphene oxide layers are prepared above and below the silver wires respectively, so that the translucent perovskite solar cell electrode is obtained. According to the translucent perovskite solar cell electrode and the preparation method thereof of the invention, the reduced graphene oxide can bond silver wire grid junctions, the resistance of the silver nanowires can be decreased, the transport performance of electrons can be improved, and therefore, the conductivity of the silver wires can be enhanced, the series resistance of a battery device can be reduced, and the overall photoelectric performance of the device can be improved.

Description

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AI Technical Summary

Benefits of technology

This patented technology allows for better conductivity between two different materials while reducing their size without compromising its effectiveness or functioning properly. By doing this, it provides an efficient way to create high-quality batteries at lower costs than previous methods.

Problems solved by technology

Technologies described include methods for improving the performance and durability of thin films containing quantum dots or metal meshes, including those called nanosilvers, through various techniques like spinning, dip casting, laser writing, and solvent immersion exposure. While these technical means aim towards enhancing the overall performance and lifespan of electronic components, each approach requires different steps during manufacturing processes. Additionally, current approaches involve multiple step procedures leading to increased processing times and lower product yields compared to traditional methods.

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