H to Zn Ionization Equilibrium for the Non-Maxwellian Electron kappa-distributions: Updated Calculations
arXiv:1304.4064 · doi:10.1088/0067-0049/206/1/6
Abstract
New data for calculation of the ionization and recombination rates have have been published in the past few years. Most of these are included in CHIANTI database. We used these data to calculate collisional ionization and recombination rates for the non-Maxwellian kappa-distributions with an enhanced number of particles in the high-energy tail, which have been detected in the solar transition region and the solar wind. Ionization equilibria for elements H to Zn are derived. The kappa-distributions significantly influence both the ionization and recombination rates and widen the ion abundance peaks. In comparison with Maxwellian distribution, the ion abundance peaks can also be shifted to lower or higher temperatures. The updated ionization equilibrium calculations result in large changes for several ions, notably Fe VIII--XIV. The results are supplied in electronic form compatible with the CHIANTI database.
ApJSS, accepted
References in corpus (5)
- Resolving the electron temperature discrepancies in HII Regions and Planetary Nebulae: kappa-distributed electrons
- Kappa Distribution Model for Hard X-Ray Coronal Sources of Solar Flares
- Diagnosing the time-dependence of active region core heating from the emission measure: I. Low-frequency nanoflares
- Kappa distribution and hard X-ray emission of solar flares
- Discrepancies between the [OIII] and [SIII] Temperatures in HII Regions
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