Quantum research opens new paths for energy and computing

Researchers at the University of California, Riverside, have advanced understanding of how quantum wave functions behave in ultra-thin layered materials, a development that could eventually improve solar energy technologies and support future quantum computing systems.

The findings show that electric fields can be used to control the position and behaviour of quantum wave functions in materials only a few atoms thick. Experiments showed that wave functions can shift between layers or exist in multiple layers simultaneously through quantum superposition, affecting a material’s optical properties.

The researchers also drew parallels with natural systems such as photosynthesis, where quantum processes are believed to support highly efficient energy transfer. By studying similar mechanisms in engineered materials, scientists hope to improve control over energy conversion and transport, particularly in solar technologies where energy losses remain a major challenge.

Researchers are also exploring whether vibrations can be used to control quantum states, potentially enabling new types of ‘quantum vibronic switches’. The findings could have applications beyond energy systems, including quantum computing, sensing and photonic technologies.

Why does it matter?

The research highlights progress towards actively controlling quantum behaviour in engineered materials, an important step in the development of practical quantum technologies. Such control could enable more efficient energy systems and improve the performance of future quantum devices.

The findings also illustrate how insights from natural processes such as photosynthesis can inform the design of next-generation materials for computing, sensing and renewable energy applications.

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