Quick search Find article
Quick search
Find article

Electron angular distributions after above-threshold multiphoton detachment of by 1064 nm radiation

Dmitry Telnov and Shih-I Chu

Show affiliations


We present a non-perturbative Floquet calculation of the electron angular distributions and partial widths for multiphoton above-threshold detachment of by 1064 nm radiation. When a beam of ions is used as a target, the angular distributions in the frame where the ions are at rest can be extracted from the energy (angle-integrated) distributions in the laboratory frame. The experiments measuring the electron angular distributions are now in progress. Our calculation procedure consists of the following elements. (i) Determination of the resonance wavefunction and complex quasienergy by means of the non-Hermitian Floquet Hamiltonian formalism. The Floquet Hamiltonian is discretized by the complex-scaling generalized pseudospectral technique recently developed (by Wang and co-workers). (ii) Calculation of the angular distribution and partial widths based on an exact integral formula. The calculations were performed for the linearly polarized laser field with the wavelength 1064 nm and several intensities in the range - . With the increase of the number of photons absorbed above the threshold, the angular distributions become more stretched along the field direction manifesting, however, a few additional maxima. Besides the numerical data for the angular distributions we also present the coefficients of expansion on the basis of Legendre polynomials.


PACS

32.80.Gc Photodetachment of atomic negative ions

31.15.-p Calculations and mathematical techniques in atomic and molecular physics

Subjects

Atomic and molecular physics

Computational physics

Dates

Issue 19 (14 October 1996)

Received 20 May 1996



  1. Electron angular distributions after above-threshold multiphoton detachment of by 1064 nm radiation

    Dmitry Telnov and Shih-I Chu 1996 J. Phys. B: At. Mol. Opt. Phys. 29 4401

  2. Sufficient conditions for the existence of bound states in a central potential

    Fabian Brau 2004 J. Phys. A: Math. Gen. 37 6687

  3. The LISA zero-signal solution

    Massimo Tinto and Shane L Larson 2005 Class. Quantum Grav. 22 S531

  4. Photoacoustic investigation of phase transitions in solids

    T Somasundaram et al 1986 J. Phys. C: Solid State Phys. 19 2137

  5. Reaction–diffusion pulses: a combustion model

    Daniel Campos et al 2004 J. Phys. A: Math. Gen. 37 6609

  6. Low temperature deposition of tantalum diffusion barrier by filtered cathodic vacuum arc

    G Q Yu et al 2003 J. Phys. D: Appl. Phys. 36 1355

  7. The cosmic dust aggregation experiment CODAG

    Jürgen Blum et al 1999 Meas. Sci. Technol. 10 836

  8. Quantum fractals in boxes

    M V Berry 1996 J. Phys. A: Math. Gen. 29 6617

  9. Derivation of the tumor position from external respiratory surrogates with periodical updating of the internal/external correlation

    E Kanoulas et al 2007 Phys. Med. Biol. 52 5443

  10. A Contracting, Turbulent, Starless Core in the Serpens Cluster

    Jonathan P. Williams and Philip C. Myers 1999 ApJ 518 L37

Related review articles

What's this?
View review articles related to this research to gain an insight into the key trends in this subject area. Related review articles are selected based on PACS/MSC codes, and are no more than three years old.

  1. Experimental methods for determining the melting temperature and the heat of melting of clusters and nanoparticles
  2. The spectroscopy of clusters by intense pulses of VUV radiation from free electron lasers

View by subject




Export








Please login to access our web services, or create an account if you don't yet have one.

You must have cookies enabled in your web browser to be able to login.

Username
Password

Forgotten your password? Get a new one here.