Publication | Open Access
Experimental investigation of aminoacetonitrile formation through the Strecker synthesis in astrophysical-like conditions: reactivity of methanimine (CH<sub>2</sub>NH), ammonia (NH<sub>3</sub>), and hydrogen cyanide (HCN)
95
Citations
38
References
2011
Year
EngineeringExperimental InvestigationBiochemistryNatural SciencesAminoacetonitrile FormationOrganic MatterIce AnalogsAstrochemistryOrganic ChemistrySolar SystemReaction IntermediateMolecular SimulationComputational ChemistryChemistryMolecular ChemistryChemical EvolutionSolar System FormationStrecker Synthesis
Context. Studing chemical reactivity in astrophysical environments is an important means for improving our understanding of the origin of the organic matter in molecular clouds, in protoplanetary disks, and possibly, as a final destination, in our solar system. Laboratory simulations of the reactivity of ice analogs provide important insight into the reactivity in these environments. Here, we use these experimental simulations to investigate the Strecker synthesis leading to the formation of aminoacetonitrile in astrophysical-like conditions. The aminoacetonitrile is an interesting compound because it was detected in SgrB2, hence could be a precursor of the smallest amino acid molecule, glycine, in astrophysical environments.
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