We report experimental results on the state-to-state vibrational relaxation of CO(v = 17) in collisions with Ag(111) at incidence translational energies between 0.27 eV and 0.57 eV. These together with previous results provide a comprehensive set of data on two molecules (CO and NO)-one open and one closed shell-and two metals (Ag and Au). In all four cases, the incidence vibrational energy has been varied over several eV. We find a unifying relation between the probability of vibrational relaxation and the energetics of electron transfer from the metal to the molecule. This argues strongly that electronic friction based theories are not capable of explaining these data
The most common mechanism of catalytic surface chemistry is that of Langmuir and Hinshelwood (LH). I...
We observe a strong influence of molecular vibration and surface temperature on electron emission pr...
We have combined a Stark decelerator with a molecular beam-surface scattering setup to accurately me...
Electronically non-adiabatic dynamics can be important in collisions of molecules at surfaces; for e...
We observe a strong influence of molecular vibration and surface temperature on electron emission pr...
We investigated the translational incidence energy (E i ) and surface temperature (T s ) dependence ...
Supersonic molecular beams of highly vibrationally excited CO are scattered from atomically clean A...
During a collision of highly vibrationally excited NO with a Au(111) surface, the molecule can lose ...
Here we review experimental and theoretical work on vibrational energy transfer in collisions of mol...
We present a combined experimental and theoretical study of NO(v = 3 -> 3, 2, 1) scattering from a A...
We report measurements of translational energy distributions when scattering NO(v(i) = 3, J(i) = 1.5...
Using molecular beam cooled samples and quantum state-selective detection, we observe v = 0 → 1 vibr...
We report the first direct measurement of the kinetic energy of exoelectrons produced by collisions ...
Nonadiabatic effects that arise from the concerted motion of electrons and atoms at comparable energ...
Nonadiabatic effects that arise from the concerted motion of electrons and atoms at comparable energ...
The most common mechanism of catalytic surface chemistry is that of Langmuir and Hinshelwood (LH). I...
We observe a strong influence of molecular vibration and surface temperature on electron emission pr...
We have combined a Stark decelerator with a molecular beam-surface scattering setup to accurately me...
Electronically non-adiabatic dynamics can be important in collisions of molecules at surfaces; for e...
We observe a strong influence of molecular vibration and surface temperature on electron emission pr...
We investigated the translational incidence energy (E i ) and surface temperature (T s ) dependence ...
Supersonic molecular beams of highly vibrationally excited CO are scattered from atomically clean A...
During a collision of highly vibrationally excited NO with a Au(111) surface, the molecule can lose ...
Here we review experimental and theoretical work on vibrational energy transfer in collisions of mol...
We present a combined experimental and theoretical study of NO(v = 3 -> 3, 2, 1) scattering from a A...
We report measurements of translational energy distributions when scattering NO(v(i) = 3, J(i) = 1.5...
Using molecular beam cooled samples and quantum state-selective detection, we observe v = 0 → 1 vibr...
We report the first direct measurement of the kinetic energy of exoelectrons produced by collisions ...
Nonadiabatic effects that arise from the concerted motion of electrons and atoms at comparable energ...
Nonadiabatic effects that arise from the concerted motion of electrons and atoms at comparable energ...
The most common mechanism of catalytic surface chemistry is that of Langmuir and Hinshelwood (LH). I...
We observe a strong influence of molecular vibration and surface temperature on electron emission pr...
We have combined a Stark decelerator with a molecular beam-surface scattering setup to accurately me...