Michał Tomza
@michaltomza.bsky.social
Quantum Physicist, Ultracold group leader, Professor at the University of Warsaw
The interactions between laser-coolable molecules in excited electronic states were investigated for the first time, with implications for collisional losses among spin-polarized molecules.
November 3, 2025 at 8:09 PM
The interactions between laser-coolable molecules in excited electronic states were investigated for the first time, with implications for collisional losses among spin-polarized molecules.
The coupling between electronic spin and mechanical rotation in ultracold KRb-Rb collisions was probed experimentally and rationalized theoretically. We found and explained exceptionally large spin-roration coupling!
April 7, 2025 at 9:56 PM
The coupling between electronic spin and mechanical rotation in ultracold KRb-Rb collisions was probed experimentally and rationalized theoretically. We found and explained exceptionally large spin-roration coupling!
We contributed electronic structure calculations to the experimental-theoretical collaboration led by Prof. Kang-Kuen Ni and her group at Harvard University with quantum scattering calculations by Prof. Timur Tscherbul from the University of Nevada and Prof. John Bohn from JILA.
April 7, 2025 at 9:56 PM
We contributed electronic structure calculations to the experimental-theoretical collaboration led by Prof. Kang-Kuen Ni and her group at Harvard University with quantum scattering calculations by Prof. Timur Tscherbul from the University of Nevada and Prof. John Bohn from JILA.
In the theoretical-experimental collaboration between @UniWarszawski and @WeizmannScience, we show that magnetically tunable Feshbach resonances in Sr⁺ + Rb collisions survive far above the ultracold regime—defying the idea that quantum phenomena vanish at higher temperatures.
February 5, 2025 at 8:05 PM
In the theoretical-experimental collaboration between @UniWarszawski and @WeizmannScience, we show that magnetically tunable Feshbach resonances in Sr⁺ + Rb collisions survive far above the ultracold regime—defying the idea that quantum phenomena vanish at higher temperatures.
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December 12, 2024 at 11:32 AM
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