activity
20022019
most citedImpact of Space Weather on Climate and Habitability of Terrestrial Type Exoplanets

246 citations · 694 across the 12 of their papers we have counts for

collaborators

12 papers

astro-ph.EP2019★ 246 cited

Impact of Space Weather on Climate and Habitability of Terrestrial Type Exoplanets

V. S. Airapetian, R. Barnes, O. Cohen +43

The current progress in the detection of terrestrial type exoplanets has opened a new avenue in the characterization of exoplanetary atmospheres and in the search for biosignatures…

astro-ph.EP2018★ 3 cited

Life Beyond the Solar System: Space Weather and Its Impact on Habitable Worlds

V. S. Airapetian, W. C. Danchi, C. F. Dong +33

The search of life in the Universe is a fundamental problem of astrobiology and a major priority for NASA. A key area of major progress since the NASA Astrobiology Strategy 2015 (N…

astro-ph.EP2018★ 36 cited

Atmospheric Beacons of Life from Exoplanets Around G and K Stars

Vladimir S. Airapetian, Charles H. Jackman, Martin Mlynczak +2

The current explosion in detection and characterization of thousands of extrasolar planets from the Kepler mission, the Hubble Space Telescope, and large ground-based telescopes op…

physics.ao-ph2016★ 2 cited

Comment on "Atmospheric ionization by high-fluence, hard spectrum solar proton events and their probable appearance in the ice core archive" by A.L. Melott et al

K. A. Duderstadt, J. E. Dibb, C. H. Jackman +4

Melott et al. [2016] suggest that individual solar proton events (SPEs) are detectable as nitrate ion spikes in ice cores. They use the high fluence, high energy (hard spectrum) SP…

physics.ao-ph2015★ 26 cited

Nitrate ions spikes in ice cores are not suitable proxies for solar proton events

Katharine A. Duderstadt, Jack E. Dibb, Charles H. Jackman +5

Nitrate ion spikes in polar ice cores are contentiously used to estimate the intensity, frequency, and probability of historical solar proton events, quantities that are needed to…

astro-ph2006★ 53 cited

Modeling atmospheric effects of the September 1859 Solar Flare

Brian Thomas, Charles Jackman, Adrian Melott

We have modeled atmospheric effects, especially ozone depletion, due to a solar proton event which probably accompanied the extreme magnetic storm of 1-2 September 1859. We use an…