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Researchers at Berkeley Lab have successfully created a tunable Bose-Einstein Condensate within an atomically thin semiconductor, overcoming previous limitations regarding exciton lifespans and temperature requirements. This breakthrough establishes a new platform for studying quantum fluids with internal structures that respond to magnetic fields, potentially advancing future quantum simulations and computing architectures.
Source coveringQuantum Zeitgeist
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Berkeley Lab observes a quantum fluid in an atomically thin chip

Quantum Zeitgeist4 min read

Berkeley Lab observed a tunable Bose-Einstein Condensate, a quantum fluid, within an atomically thin semiconductor.

Researchers at Lawrence Berkeley National Laboratory have, for the first time, observed a tunable Bose-Einstein Condensate of excitons within an atomically thin semiconductor, a feat previously limited by exciton lifespans of around a billionth of a second. The findings, published in Nature, demonstrate a new platform for studying quantum fluids and reveal a surprising internal structure within the condensate that responds to magnetic fields. “Previous studies have shown that electrons and holes can bind into excitons, but there wasn’t an easy way…

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