What is the key technology behind Oxford PV's solar cells?

Perovskite solar cells, which combine silicon with synthetic perovskite materials, are the focus of Oxford PV's research and development efforts to significantly improve the efficiency of solar power.

How are Oxford PV researchers testing their perovskite solar cells?

The researchers at Oxford PV's lab are using an electron microscope to scan the cells for impurities and measuring their response to changes in the light spectrum to ensure the cells can withstand real-world conditions.

What makes perovskite materials a promising solution for the future of solar energy?

Perovskite materials can be manufactured from readily available elements like bromine, chlorine, lead, and tin, making them a scalable and cost-effective option for the solar industry.

Home / Technology / Perovskite Solar Cells Aim to Revolutionize Renewable Energy

Perovskite Solar Cells Aim to Revolutionize Renewable Energy

16 Oct

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Summary

Perovskite solar cells combine silicon and synthetic materials
Oxford PV lab tests cells for impurities and light spectrum response
Perovskite materials can be manufactured from readily available elements

Perovskite Solar Cells Aim to Revolutionize Renewable Energy

As of October 16th, 2025, the solar energy industry is on the brink of a potential revolution, thanks to advancements in perovskite solar cell technology. These innovative cells, developed by start-ups like Oxford PV, a spin-off from the University of Oxford, combine silicon, the material currently used in most solar panels, with synthetic perovskite materials to significantly increase the efficiency of converting sunlight into electricity.

In a lab on the outskirts of Oxford, researchers are meticulously testing these perovskite solar cells, scanning them for impurities and analyzing their response to changes in the light spectrum. The goal is to ensure the cells can withstand the rigors of real-world conditions as they move out of the lab and into widespread deployment.

Perovskite, a mineral first discovered in the Ural Mountains in 1839, has become the focus of intense research and development in the solar energy field. The synthetic perovskite materials used in these cells can be manufactured from readily available elements such as bromine, chlorine, lead, and tin, making them a promising and scalable solution for the future of renewable energy.