Results 11 to 20 of about 3,228 (211)

A KInetic Database for Astrochemistry (KIDA) [PDF]

The Astrophysical Journal Supplement Series, 2012
We present a novel chemical database for gas-phase astrochemistry. Named the KInetic Database for Astrochemistry (KIDA), this database consists of gas-phase reactions with rate coefficients and uncertainties that will be vetted to the greatest extent ...
A Dalgarno (21857003), J Tennyson (7678289), F Selsis (7678037), R Wester (21857042), IWM Smith (21856985), A Bergeat (21856994), P Pernot (21857030), V Chandrasekaran (9708617), M Chabot (21245420), S Schlemmer (21857033), K Béroff (21856997), E Herbst (16196021), L Wiesenfeld (17779629), EFV Dishoeck (21857006), D Talbi (21857039), M-C Bacchus-Montabonel (20223333), SL Picard (21857024), VM Bierbaum (21857000), B Pavone (21856988), J Troe (13688989), J-C Loison (21856982), G Nyman (21857027), E Hébrard (21856367), SJ Klippenstein (21857021), KM Hickson (21857015), D Galli (18699346), P Honvault (21857018), NG Adams (21856991), V Wakelam (21856979), F Hersant (7714685), WD Geppert (21857009), IR Sims (21857036), D Gerlich (21857012), A Faure (20368959)   +33 more
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Astrochemistry

Physical Chemistry Chemical Physics, 2014
No description ...
Wendy Brown (4464298)
core   +3 more sources

Dynamical Astrochemistry

, 2017
Astrochemistry is a well-established interdisciplinary subject and the methods for describing time-dependent chemistry in static or slowly-changing regions of interstellar space have been well-developed over many years.
Thomas W Hartquist, David A Williams, Jonathan M C Rawlings, Cesare Cecchi-Pestellini, Serena Viti   +4 more
core   +2 more sources

Astrochemistry

Plasma Sources Science and Technology, 2015
In the last 40 years a wide range of molecules, including neutrals, cations and anions, containing up to 13 atoms—in addition to detections of C60 and C70 — have been found in the harsh environment of the interstellar medium.
Millar, T. J.
core   +3 more sources

Astrochemistry: Ingredients of life in space

, 2022
Astrochemistry dives into the evolution of the molecular universe, from the birth of the simplest molecules to the generation of building blocks for planets and possibly life.
Candian, A., Vaishampayan, P., Thombre, R., Petrignani, A.   +3 more
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Grand Challenges in Astrochemistry [PDF]

Frontiers in Astronomy and Space Sciences, 2020
Astrochemistry and molecular astrophysics are often used as synonyms to define an interdisciplinary field that involves chemistry and astronomy, (astro)physics, as well as a “flavor” of biology and geology.
Cristina Puzzarini, Cristina Puzzarini
doaj   +2 more sources

Enhanced Resolution in EPR Spectroscopy Using para-Hydrogen Matrices. [PDF]

Angew Chem Int Ed Engl
We demonstrate the advantageous properties of solid para‐hydrogen (p‐H2) matrices for electron paramagnetic resonance (EPR) spectroscopy by investigating the 2,2,6,6‐tetramethylpiperidinyloxyl (TEMPO) radical and an in situ generated P‐centered mono‐radical.
Portela-González A, Sander W, Eckhardt AK.   +2 more
europepmc   +2 more sources

Computational Astrochemistry Journey towards the molecular universe

In astrochemistry, computational methods play a crucial role in addressing fundamental astronomical questions. Interstellar molecules profoundly influence the chemistry and physics of the interstellar medium (ISM), playing pivotal roles in planet ...
Campisi, D., Perrero, J., Balucani, N.
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Influences on Infrared Spectra of Benzene Ices for Titan, Comets, and Beyond: Annealings, Artifacts, and Isosbestic Points

The Planetary Science Journal, 2023
Infrared (IR) spectra are needed for both laboratory and observational studies of extraterrestrial ices, both within the solar system, such as for trans-Neptunian objects, comets, and Titan, and in the interstellar medium.
Reggie L. Hudson, Perry A. Gerakines
doaj   +1 more source

Laboratory astrochemistry of the gas phase: general discussion

, 2023
Laboratory astrochemistry of the gas phase: general ...
Balucani N., Kamp I., Gupta D., Halpern J., Suits A. G., Viti S., Brunken S., Brann M., Douglas K. M., Stockett M. H., Sturm A., Wiesenfeld L., Fulker J., Huang K. -Y., Jacovella U., Meijer A., Cordiner M., Gudipati M. S., Herbst E., Hockey E. K., Madhusudhan N., van Dishoeck E. F., Widicus Weaver S., Walker N., Rap D. B., Flint A., Heard D. E., McGuire B., Crump E. M., Garrod R. T., Sims I. R., Lemmens A. K., Puzzarini C., Fleisher A. J., Ceccarelli C., McCoustra M. R. S., Wilkins O. H.   +36 more
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