Ion-atom-atom three-body recombination in cold hydrogen and deuterium plasmas
arXiv:2207.05352 · doi:10.1103/PhysRevA.106.023316
Abstract
We present a detailed study about ion-atom-atom three-body recombination in hydrogen and deuterium plasmas based on classical trajectory calculations in hyperspherical coordinates. Our results, due to the predominant role of the long-range charged-induced dipole interaction, indicate that H and D are the main reaction products in the case of hydrogen and deuterium plasmas, respectively. Besides, we find a more steep energy-dependent reaction rate when the collision energy surpasses the dissociation energy of the molecular ion, thus entering a new dynamical regime dominated by short-range interactions.
arXiv comment6 pages, 3 figures, submitted for publication as a Regular Article in Physical Review A
References in corpus (20)
- Variational calculations of dispersion coefficients for interactions between H, He, and Li atoms
- Three-body recombination at large scattering lengths in an ultracold atomic gas
- Universal few-body physics and cluster formation
- Three-body recombination in Bose gases with large scattering length
- Energy scaling of cold atom-atom-ion three-body recombination
- Rate of three-body recombination of hydrogen molecules during primordial star formation
- Comparison of classical and quantal calculations of helium three-body recombination
- Life and death of a cold BaRb molecule inside an ultracold cloud of Rb atoms
- Observation of Chemical Reactions between a Trapped Ion and Ultracold Feshbach Dimers
- Universal temperature dependence of the ion-neutral-neutral three-body recombination rate
- Cold chemistry: a few-body perspective on impurity physics of a single ion in an ultracold bath
- Magnetic trapping of silver and copper, and anomolous spin relaxation in the Ag-He system
- Formation of van der Waals molecules in buffer gas cooled magnetic traps
- Cold three-body collisions in hydrogen-hydrogen-alkali atomic system
- Formation and dynamics of van der Waals molecules in buffer-gas traps
- Three-body losses of a polarized Fermi gas near a p-wave Feshbach resonance in effective field theory
- Cold, anisotropically-interacting van der Waals molecule: TiHe
- Controlling the nature of a charged impurity in a bath of Feshbach dimers
- On the formation of van der Waals complexes through three-body recombination
- Classical threshold law for the formation of van der Waals molecules