Molecular hydrogen is the most abundant molecule in the universe. It is the first one to form and survive photo-dissociation in tenuous environments. Its formation involves catalytic reactions on the surface of interstellar grains. The micro-physics of the formation process has been investigated intensively in the last 20 years, in parallel of new astrophysical observational and modeling progresses. In the perspectives of the probable revolution brought by the future satellite JWST, this article has been written to present what we think we know about the H₂ formation in a variety of interstellar environments
Molecular hydrogen is by far the most abundant molecule in space. H$\sb2$ formation in the interstel...
International audienceThe microphysics of molecular hydrogen formation has an influence on galactic-...
An analysis of the kinetics of H2 formation on interstellar dust grains is presented using rate equa...
Molecular hydrogen is the most abundant molecule in the universe. It is the first one to form and su...
Molecular hydrogen is the most abundant molecule in the universe. It is the first one to form and su...
Molecular hydrogen is the most abundant molecule in the universe. It is the first one to form and su...
International audienceThe most efficient mechanism of the formation of molecular hydrogen in the cur...
Molecular hydrogen has an important role in the early stages of star formation as well as in the pro...
We have developed a model for molecular hydrogen formation under astrophysically relevant conditions...
Context. It has been found from ISO, Spitzer, and Herschel observations that molecular hydrogen, H2,...
International audienceContext. It has been found from ISO, Spitzer, and Herschel observations that m...
Molecules in interstellar gas and in interstellar ices play a fundamental role in astronomy. However...
International audienceThe most efficient mechanism of the formation of molecular hydrogen in the cur...
Our laboratory research program is about the formation of molecules on dust grains analogues in cond...
Molecular hydrogen is by far the most abundant molecule in space. H$\sb2$ formation in the interstel...
International audienceThe microphysics of molecular hydrogen formation has an influence on galactic-...
An analysis of the kinetics of H2 formation on interstellar dust grains is presented using rate equa...
Molecular hydrogen is the most abundant molecule in the universe. It is the first one to form and su...
Molecular hydrogen is the most abundant molecule in the universe. It is the first one to form and su...
Molecular hydrogen is the most abundant molecule in the universe. It is the first one to form and su...
International audienceThe most efficient mechanism of the formation of molecular hydrogen in the cur...
Molecular hydrogen has an important role in the early stages of star formation as well as in the pro...
We have developed a model for molecular hydrogen formation under astrophysically relevant conditions...
Context. It has been found from ISO, Spitzer, and Herschel observations that molecular hydrogen, H2,...
International audienceContext. It has been found from ISO, Spitzer, and Herschel observations that m...
Molecules in interstellar gas and in interstellar ices play a fundamental role in astronomy. However...
International audienceThe most efficient mechanism of the formation of molecular hydrogen in the cur...
Our laboratory research program is about the formation of molecules on dust grains analogues in cond...
Molecular hydrogen is by far the most abundant molecule in space. H$\sb2$ formation in the interstel...
International audienceThe microphysics of molecular hydrogen formation has an influence on galactic-...
An analysis of the kinetics of H2 formation on interstellar dust grains is presented using rate equa...