Physicists create first butterfly-shaped ultracold molecule

Researchers have produced an exotic molecule that looks like a butterfly, with electron wings, by combining giant and normal-sized rubidium atoms. The achievement completes a two-decade search for a family of such giant molecules and may enable further advances in quantum science.

The molecule was assembled at RPTU University Kaiserslautern-Landau in Germany. Scientists cooled rubidium atoms to within a few millionths of a degree of absolute zero, then used lasers to enlarge some atoms dramatically before binding an outer electron to a neighboring atom. The resulting structure measures roughly 25 nanometres across and responds to electric fields far more strongly than ordinary molecules.

Related Articles

MIT terahertz microscope revealing quantum vibrations in a superconductor crystal, with scientists observing in a lab.
Image generated by AI

MIT builds terahertz microscope to observe quantum motions in superconductors

Reported by AI Image generated by AI

Physicists at MIT have developed a new microscope using terahertz light to directly observe hidden quantum vibrations inside a superconducting material for the first time. The device compresses terahertz light to overcome its wavelength limitations, revealing frictionless electron flows in BSCCO. This breakthrough could advance understanding of superconductivity and terahertz-based communications.

Researchers have created a molecule with a novel topology resembling a half-Möbius strip, requiring four loops to return to the starting point. The structure, made from 13 carbon atoms and two chlorine atoms, was assembled on a gold surface at low temperatures. This discovery highlights potential advances in molecular engineering and quantum simulations.

Reported by AI

Researchers at Helmholtz-Zentrum Dresden-Rossendorf have filmed copper atoms losing and regaining electrons in femtoseconds using dual lasers. The experiment creates superheated plasma mimicking extreme cosmic conditions. Findings could advance laser fusion research.

For the first time, researchers have demonstrated light behaving like the quantum hall effect, a phenomenon previously observed only in electrons. Photons now drift sideways in quantized steps determined by fundamental constants. This breakthrough could enhance precision measurements and advance quantum photonic technologies.

Reported by AI

Scientists at ETH Zurich have developed a palm-sized superconducting magnet that produces magnetic fields up to 42 Tesla, matching the power of massive laboratory behemoths. This breakthrough uses commercially available materials and requires minimal power, potentially making advanced magnetic technologies more accessible. The innovation aims to enhance nuclear magnetic resonance techniques for molecular analysis.

This website uses cookies

We use cookies for analytics to improve our site. Read our privacy policy for more information.
Decline