Exact energy-eigenstates of the Coulomb-Stark Hamiltonian
arXiv:2111.06984 · doi:10.1103/PhysRevA.105.032203
Abstract
An approximation-free, numerically efficient algorithm is presented for the Hamiltonian eigen-states of the Stark-Hydrogen problem describing a quantum particle exposed to the central Coulomb force and a homogeneous external field. As an example of application in a state-expansion with continuous energy, we calculate the time-dependent wavefunction of an electron tunneling from a hydrogen atom suddenly exposed to an external electric field.
References in corpus (7)
- Tunneling Time in Ultrafast Science is Real and Probabilistic
- Probing the longitudinal momentum spread of the electron wave packet at the tunnel exit
- Resummation of the Divergent Perturbation Series for a Hydrogen Atom in an Electric Field
- On the quantum tunneling time: Instantaneous, finite or probabilistic?
- Stark Ionization of Atoms and Molecules within Density Functional Resonance Theory
- Above-well, Stark, and potential-barrier resonances of an open square well in a static external electric field
- Universal long-wavelength nonlinear optical response of noble gases