Burcin Bayram (Miami University) "Time-Resolved High-Resolution Molecular Spectroscopy with Energetic Sodium Molecules"

Burçin Bayram
March 29, 2019
12:30PM - 1:30PM
4138 Physics Research Building

Date Range
2019-03-29 12:30:00 2019-03-29 13:30:00 Burcin Bayram (Miami University) "Time-Resolved High-Resolution Molecular Spectroscopy with Energetic Sodium Molecules" Advances in experimental atomic, molecular and optical physics continue to make major contributions to the innovations in science and technology and impacts global society.  I will be presenting my group’s recent work on experimental studies of radiative lifetimes of highly energetic sodium molecules using time-resolved optical-optical double-resonance spectroscopy and compare our results with the theoretical predictions. Radiative lifetime measurements determines the electronic transition dipole moment matrix element which is the key parameter in determination of the probability of absorption and emission of light by a molecule. Lifetime measurements are important for calculations of relative abundances of elements in astrophysics and for predictions of potential laser action and temperature determination of plasma physics. This research is supported by the National Science Foundation.  4138 Physics Research Building America/New_York public

Advances in experimental atomic, molecular and optical physics continue to make major contributions to the innovations in science and technology and impacts global society.  I will be presenting my group’s recent work on experimental studies of radiative lifetimes of highly energetic sodium molecules using time-resolved optical-optical double-resonance spectroscopy and compare our results with the theoretical predictions. Radiative lifetime measurements determines the electronic transition dipole moment matrix element which is the key parameter in determination of the probability of absorption and emission of light by a molecule. Lifetime measurements are important for calculations of relative abundances of elements in astrophysics and for predictions of potential laser action and temperature determination of plasma physics. This research is supported by the National Science Foundation.