Since the first ion imaging experiment [DW Chandler and PL Houston, J. Chem. Phys. 87,
1445–1447 (1987)], demonstrating the capability of collecting an image of the …

Ultrafast laser pump-probe methods allow chemical reactions to be followed in real time,
and have provided unprecedented insight into fundamental aspects of chemical reactivity …

Studies of ion–molecule reactions at low temperatures have received considerable attention
over past years. One of the major motivations for experiments in this domain is that low …

By using the 1+ 1′ near-threshold ionization velocity map ion imaging technique, state-to-
state reactive differential cross sections have been measured for the H+ HD→ H2+ D …

We present the implementation of a new crossed-molecular beam, velocity-map ion-imaging
apparatus, optimized for collisions of electronically excited molecules. We have applied this …

We report on reactive scattering studies of the proton transfer and combined
hydrogen/proton transfer in the O–+ CH3I reaction. We combine state-of-the-art crossed …

Understanding the molecular forces that drive a reaction or scattering process lies at the
heart of molecular dynamics. Here, we present a combined experimental and theoretical …

The Stark deceleration technique can produce molecular beams with very low velocities. In
order to maximize the density of decelerated molecules, experimental parameters such as …

As illustrated by Dudley R. Herschbach in his Nobel Lecture, 1 the development of chemical
dynamics is strongly linked to technical advances, from Louis Dunoyer's2 “rayonnement …

The inelastic scattering of vibrationally excited NO (v= 1) with Ar at a collision energy of 3.0
kcal mol− 1 was investigated in crossed beams. Vibrationally excited NO was generated by …