UC Riverside Shows Electric Fields Control Quantum Wave Functions in Atom-Thin Materials
Updated
Updated · Dig Watch Updates · Jun 3
UC Riverside Shows Electric Fields Control Quantum Wave Functions in Atom-Thin Materials
2 articles · Updated · Dig Watch Updates · Jun 3
Summary
UC Riverside researchers found electric fields can steer quantum wave functions in materials just a few atoms thick, letting them shift between layers or occupy multiple layers at once.
That control changes the materials’ optical behavior, giving scientists a more precise way to tune quantum states for photonics, sensing and future quantum devices.
The team linked the mechanism to photosynthesis, where quantum effects are thought to aid efficient energy transfer, and said similar engineered systems could reduce losses in solar energy conversion.
Researchers are also testing whether vibrations can manipulate those states, a step that could lead to quantum vibronic switches and broaden applications in computing and energy technologies.
As scientists control quantum particles, will this first revolutionize solar panels or build next-generation quantum computers?
What key challenges prevent today's quantum breakthroughs from powering tomorrow's computers and solar panels?
While racing for quantum supremacy, are we ignoring the environmental costs of these new wonder materials?
Electric Field Control of Quantum Wave Functions in Atomically Thin WSe₂: Breakthroughs, Challenges, and Transformative Applications (2026)
Overview
In May 2026, researchers at the University of California, Riverside, led by Professor Nathaniel Gabor and the QuVET Center, achieved a major breakthrough by precisely controlling quantum wave functions in atomically thin materials using electric fields. This advance allows scientists to actively influence and maintain delicate quantum states, marking a pivotal step in manipulating matter at the smallest scales. The ability to control these fundamental building blocks opens new possibilities for understanding and harnessing quantum phenomena, with promising impacts on energy conversion, quantum computing, and future technologies.