2-7 June 2019
Simon Fraser University
America/Vancouver timezone
Welcome to the 2019 CAP Congress Program website! / Bienvenue au siteweb du programme du Congrès de l'ACP 2019 !

53 - Production of Ultracold Lithium Triplet Dimers by STIRAP

4 Jun 2019, 17:21
2m
SWH 9082 + AQ South-East Corner / coin sud-est (Simon Fraser University)

SWH 9082 + AQ South-East Corner / coin sud-est

Simon Fraser University

Poster Competition (Graduate Student) / Compétition affiches (Étudiant(e) 2e ou 3e cycle) Division of Atomic, Molecular and Optical Physics, Canada / Division de la physique atomique, moléculaire et photonique, Canada (DAMOPC-DPAMPC) DAMOPC Poster Session & Student Poster Competition Finals (26) | Session d'affiches DPAMPC et finales du concours d'affiches étudiantes (26)

Speaker

Denis Uhland (University of British Columbia)

Description

Ultra-cold atomic ensembles have enabled experimental studies of few and many-body quantum phenomena including topological insulators, many-body pairing phenomena, and superfluidity. The use of ultra-cold molecular ensembles is expected to provide access to even richer phenomena than atoms due to their complex internal structure. Cold molecules are also key to studying and understanding chemistry near T=0 where reactions are dominated by quantum effects. Motivated by this, we have developed an experimental apparatus that can produce Li dimers from laser-cooled Li atoms and, eventually, LiRb molecules from Li+Rb atomic ensembles. Beginning with a gas of Li atoms, we form loosely bound Feshbach dimers by evaporation near a Feshbach resonance. We then manipulate the internal state of these molecules, transferring them into deeply bound ro-vibrational levels of the $a(1^{3}\Sigma^{+}_{u})$ triplet potential using stimulated Raman adiabatic passage (STIRAP). Having the possibility to transfer an ultra-cold molecular ensemble to different quantum states immediately opens the window for studies in ultra-cold chemistry.

Primary author

Denis Uhland (University of British Columbia)

Co-authors

Erik Frieling (University of British Columbia) Gene Polovy Prof. Kirk Madison (UBC)

Presentation Materials

There are no materials yet.