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January 16, 2025

Chinese researchers discover novel quantum state of matter

Probing the CSF in optical lattices. Credit: Nature 萌妹社区ics (2025). DOI: 10.1038/s41567-024-02732-5
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Probing the CSF in optical lattices. Credit: Nature 萌妹社区ics (2025). DOI: 10.1038/s41567-024-02732-5

Chinese researchers observed a novel quantum state of matter, counterflow superfluidity, in atomic ultracold quantum simulation experiments, the University of Science and Technology of China announced on Thursday.

During the experiment, the research team successfully observed counterflow superfluidity through precise control of a newly developed quantum gas microscope.

This research demonstrates that the atomic ultracold quantum simulation method offers a wealth of quantum control and observation techniques for exploring novel forms of matter, making it an essential tool for studying the microscopic physical mechanisms of strongly correlated many-body quantum states.

In the 1930s, physicists discovered superfluidity in , a major milestone in advancing foundational research in quantum physics. This discovery spurred the development of low-temperature technologies, including and dilution refrigeration, which have become critical tools in quantum simulation, , and related disciplines.

This finding, presented in an article titled "Counterflow superfluidity in a two-component Mott insulator," was in Nature 萌妹社区ics on Jan. 8.

More information: Yong-Guang Zheng et al, Counterflow superfluidity in a two-component Mott insulator, Nature 萌妹社区ics (2025). . On arXiv:

Journal information: Nature 萌妹社区ics , arXiv

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Chinese researchers have identified a novel quantum state of matter, counterflow superfluidity, using atomic ultracold quantum simulation experiments. This was achieved through precise control with a new quantum gas microscope. The study highlights the potential of ultracold quantum simulation methods in exploring strongly correlated many-body quantum states, offering advanced techniques for quantum control and observation.

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