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Researchers have successfully applied microwave fields to induce torque and electrostriction in a Bose-Einstein condensate of dipolar molecules, marking a significant step toward observing exotic quantum states like supersolidity. This breakthrough validates theoretical models up to 6,000 atomic units and demonstrates precise control over many-body phenomena previously limited by experimental constraints. The ability to dynamically reshape and rotate these quantum gases opens new avenues for investigating complex interactions in ultra-cold molecular systems.
Researchers Torque Bose-Einstein Condensate with Microwaves

The extended Gross-Pitaevskii equation accurately predicted behaviour within these experiments up to dipolar lengths of 6,000 atomic units, a surprising level of fidelity for complex interacting systems. Until now, controlling such quantum gases beyond simple spherical symmetry has remained largely theoretical due to experimental limitations. Successfully inducing torque via electrostriction offers an avenue towards investigating exotic states like supersolidity previously hidden from observation.
Until now, controlling quantum gases with long-range interactions presented significant challenges in understanding complex many-body phenomena. For the first time, researchers at Columbia University and Radboud University have observed electrostriction, an elliptical deformation, in a Bose-Einstein condensate comprised of dipolar molecules using microwave dressing to manipulate their interactions. This achievement demonstrates that the BEC can be torqued by dynamically changing an applied microwave field; importantly, modelling accurately matched experimental results up to dipolar…
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