Astrophysical jets: Observations, numerical simulations, and laboratory experiments
Paul M. Bellan, Mario Livio, Y. Kato, S. V. Lebedev, T. P. Ray, A. Ferrari, Patrick Hartigan, Adam Frank, J. M. Foster, Ph. Nicolaï
Abstract
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Paul M. Bellan, Mario Livio, Y. Kato, S. V. Lebedev, T. P. Ray, A. Ferrari, Patrick Hartigan, Adam Frank, J. M. Foster, Ph. Nicolaï
Abstract
Open-access reader
This paper provides summaries of ten talks on astrophysical jets given at the HEDP/HEDLA-08 International Conference in St. Louis. The talks are topically divided into the areas of observation, numerical modeling, and laboratory experiment. One essential feature of jets, namely, their filamentary (i.e., collimated) nature, can be reproduced in both numerical models and laboratory experiments. Another essential feature of jets, their scalability, is evident from the large number of astrophysical situations where jets occur. This scalability is the reason why laboratory experiments simulating jets are possible and why the same theoretical models can be used for both observed astrophysical jets and laboratory simulations.
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This paper provides summaries of ten talks on astrophysical jets given at the HEDP/HEDLA-08 International Conference in St. Louis. The talks are topically divided into the areas of observation, numerical modeling, and laboratory experiment. One essential feature of jets, namely, their filamentary (i.e., collimated) nature, can be reproduced in both numerical models and laboratory experiments. Another essential feature of jets, their scalability, is evident from the large number of astrophysical situations where jets occur. This scalability is the reason why laboratory experiments simulating jets are possible and why the same theoretical models can be used for both observed astrophysical jets and laboratory simulations.
Key concepts: Physics, Scalability, Collimated light, Jet (fluid), Feature (linguistics), Aerospace engineering, Statistical physics, Astrophysics