activity
20232026
most citedHyperfine-to-rotational energy transfer in ultracold atom-molecule collisions

19 citations · 62 across the 10 of their papers we have counts for

collaborators

12 papers

physics.atom-ph2026

Collision inside an atom: quantum ion-atom dynamics

Arijit Das, Yufeng Wang, Marcin Welter +6

Rydberg atoms occupy a central role in quantum science; their loosely bound outer electron gives rise to properties that enable quantum information processing1 or the formation of…

physics.atom-ph2026

Diatomic molecular anions of alkali-metal and alkaline-earth-metal atoms

Sana Akkari, Hela Ladjimi, Wissem Zrafi +3

Studies of anions are inherently more challenging than investigations of neutrals and cations because of the diffuse and weakly bound character of an anionic electron. Here, we pre…

cond-mat.quant-gas2026

Tunable two-component ultracold molecular gases with vibrational shielding

Bijit Mukherjee, Michał Tomza

We propose a method to realize stable, tunable two-component quantum mixtures of ultracold polar molecules. First, we show that a pair of polar molecules in two distinct rovibratio…

physics.atom-ph2026

Charge Exchange Dynamics in Cold Collisions of CaH and K

Swapnil Patel, Dibyendu Sardar, Jyothi Saraladevi +2

We report the observation of charge-exchange collisions between trapped calcium monohydride molecular ions (CaH) and ultracold potassium atoms (K) in a hybrid ion…

quant-ph2025

Infrared absorption spectroscopy of a single polyatomic molecular ion

Zhenlin Wu, Tim Duka, Mariano Isaza-Monsalve +8

Absorption spectroscopy is a fundamental tool for probing molecular structure. However, performing absorption spectroscopy on individual molecules is challenging due to the low sig…

cond-mat.quant-gas2025

Ultracold high-spin -state polar molecules for new physics searches

Alessio Ciamei, Adam Koza, Marcin Gronowski +1

We propose high-spin -state polar molecules assembled from ultracold atoms to probe charge-parity violating physics beyond the Standard Model. We identify YbCr as a prime candid…

physics.atom-ph2025★ 5 cited

Optical excitation and stabilization of ultracold field-linked tetratomic molecules

Bijit Mukherjee, Michał Tomza

We propose a coherent optical population transfer of weakly bound field-linked (FL) tetratomic molecules (tetramers) to deeper FL bound states using stimulated Raman adiabatic pass…

physics.atom-ph2025★ 1 cited

CaF+CaF interactions in the ground and excited electronic states: implications for collisional losses

Dibyendu Sardar, Marcin Gronowski, Michał Tomza +1

Accurate \textit{ab initio} potential energy surfaces are essential to understand and predict collisional outcomes in ultracold molecular systems. In this study, we explore the int…

physics.atom-ph2024★ 19 cited

Hyperfine-to-rotational energy transfer in ultracold atom-molecule collisions

Yi-Xiang Liu, Lingbang Zhu, Jeshurun Luke +7

Energy transfer between different mechanical degrees of freedom in atom-molecule collisions has been widely studied and largely understood. However, systems involving spins remain…

physics.chem-ph2024

Interactions and cold collisions of AlF in the ground and excited electronic states with He

Sangami Ganesan-Santhi, Matthew D. Frye, Marcin Gronowski +1

Aluminium monofluoride (AlF) is a promising candidate for laser cooling and the production of dense ultracold molecular gases, thanks to its relatively high chemical stability and…

cond-mat.quant-gas2024★ 18 cited

Ultracold LiCr: a new pathway to quantum gases of paramagnetic polar molecules

Stefano Finelli, Alessio Ciamei, Beatrice Restivo +8

Quantum gases of doubly-polar molecules represent appealing frameworks for a variety of cross-disciplinary applications, encompassing quantum simulation and computation, controlled…

physics.atom-ph2023★ 19 cited

Spectrum of Feshbach resonances in NaLi Na collisions

Juliana J. Park, Hyungmok Son, Yu-Kun Lu +5

Collisional resonances of molecules can offer a deeper understanding of interaction potentials and collision complexes, and allow control of chemical reactions. Here, we experiment…