Collisional quenching of electronically excited OH A2Σ+ radicals by molecular hydrogen introduces nonradiative pathways that rapidly remove OH population from the excited state, and result in a significantly decreased fluorescence lifetime. One of these pathways is shown to lead to ground state OH X2Π products with ∼1 eV of internal excitation in both highly excited rotational levels of v = 1 and the lowest rotational levels of v = 2. This highly nonstatistical OH X2Π product distribution reflects the passage of the HO–H2system through the conical intersection regions that couple the ground and excited state surfaces
Author Institution: Department of Chemistry, University of Pennsylvania, Philadelphia, PA, 19104Col...
The seams of conical intersection exist between the ground (12A) and the first-excited (22A) electro...
Collisional removal of the v_=0 level of the A_2_+ state of the OH radical has been studied as a fun...
We report a combined experimental and theoretical investigation of the nonreactive quenching channel...
A pump–probe laser-induced fluorescence technique has been used to examine the nascent OH X <sup>2</...
The collisional quenching of OH radicals in their excited A<sup>2</sup>Σ<sup>+</sup> electronic stat...
Hydroxyl (OH) radicals are important in atmospheric and combustion environments where they are often...
The nascent OH X <sup>2</sup>Π product state distribution arising from collisional quenc...
This thesis focuses on the nonradiative disposal of energy following electronic excitation of atmosp...
This thesis focuses on the nonradiative disposal of energy following electronic excitation of atmosp...
Author Institution: Department of Chemistry, University of Pennsylvania, 231 S. 34 St, Philadelphia...
This thesis focuses on the nonradiative disposal of energy following electronic excitation of atmosp...
Nonadiabatic quantum scattering calculations have been carried out for the reactive and nonreactive ...
This review focuses on experimental studies of the dynamical outcomes following collisional quenchin...
Electronic quenching of OH A (2)Σ(+) by Kr was investigated through experimental studies of the coll...
Author Institution: Department of Chemistry, University of Pennsylvania, Philadelphia, PA, 19104Col...
The seams of conical intersection exist between the ground (12A) and the first-excited (22A) electro...
Collisional removal of the v_=0 level of the A_2_+ state of the OH radical has been studied as a fun...
We report a combined experimental and theoretical investigation of the nonreactive quenching channel...
A pump–probe laser-induced fluorescence technique has been used to examine the nascent OH X <sup>2</...
The collisional quenching of OH radicals in their excited A<sup>2</sup>Σ<sup>+</sup> electronic stat...
Hydroxyl (OH) radicals are important in atmospheric and combustion environments where they are often...
The nascent OH X <sup>2</sup>Π product state distribution arising from collisional quenc...
This thesis focuses on the nonradiative disposal of energy following electronic excitation of atmosp...
This thesis focuses on the nonradiative disposal of energy following electronic excitation of atmosp...
Author Institution: Department of Chemistry, University of Pennsylvania, 231 S. 34 St, Philadelphia...
This thesis focuses on the nonradiative disposal of energy following electronic excitation of atmosp...
Nonadiabatic quantum scattering calculations have been carried out for the reactive and nonreactive ...
This review focuses on experimental studies of the dynamical outcomes following collisional quenchin...
Electronic quenching of OH A (2)Σ(+) by Kr was investigated through experimental studies of the coll...
Author Institution: Department of Chemistry, University of Pennsylvania, Philadelphia, PA, 19104Col...
The seams of conical intersection exist between the ground (12A) and the first-excited (22A) electro...
Collisional removal of the v_=0 level of the A_2_+ state of the OH radical has been studied as a fun...