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Matrix isolation in laboratory astrochemistry: state-of-the-art, implications and perspective

Vladimir Isaevich Feldman 1
Vladimir Isaevich Feldman
, 
Sergey Victorovich Ryazantsev 1, 2, 3
Sergey Victorovich Ryazantsev
, 
Svetlana Vladimirovna Kameneva 4, 5
Svetlana Vladimirovna Kameneva
1 Department of Chemistry, Lomonosov State University, Moscow
2 Skolkovo Institute of Science and Technology, Moscow
3 Moscow Institute of Physics and Technology, Dolgoprudny, Moscow region
4 Kurnakov Institute of General and Inorganic Chemistry of the Russian Academy of Sciences, Moscow
5 National Research University Higher School of Economics, Moscow
10.1070/RCR4995
Published 30 November 2020
Review , RCR4995, Volume 90, Issue 9, 1142-1165
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Feldman V. I., Ryazantsev S. V., Kameneva S. V. Matrix isolation in laboratory astrochemistry: state-of-the-art, implications and perspective // Russian Chemical Reviews. 2020. Vol. 90. No. 9. pp. 1142-1165.
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Feldman V. I., Ryazantsev S. V., Kameneva S. V. Matrix isolation in laboratory astrochemistry: state-of-the-art, implications and perspective // Russian Chemical Reviews. 2020. Vol. 90. No. 9. pp. 1142-1165.
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TY - JOUR
DO - 10.1070/RCR4995
UR - https://rcr.colab.ws/publications/10.1070/RCR4995
TI - Matrix isolation in laboratory astrochemistry: state-of-the-art, implications and perspective
T2 - Russian Chemical Reviews
AU - Feldman, Vladimir Isaevich
AU - Ryazantsev, Sergey Victorovich
AU - Kameneva, Svetlana Vladimirovna
PY - 2020
DA - 2020/11/30
PB - ANO Editorial Board of the journal Uspekhi Khimii
SP - 1142-1165
IS - 9
VL - 90
ER -
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@article{2020_Feldman,
author = {Vladimir Isaevich Feldman and Sergey Victorovich Ryazantsev and Svetlana Vladimirovna Kameneva},
title = {Matrix isolation in laboratory astrochemistry: state-of-the-art, implications and perspective},
journal = {Russian Chemical Reviews},
year = {2020},
volume = {90},
publisher = {ANO Editorial Board of the journal Uspekhi Khimii},
month = {Nov},
url = {https://rcr.colab.ws/publications/10.1070/RCR4995},
number = {9},
pages = {1142--1165},
doi = {10.1070/RCR4995}
}
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Feldman, Vladimir Isaevich, et al. “Matrix isolation in laboratory astrochemistry: state-of-the-art, implications and perspective.” Russian Chemical Reviews, vol. 90, no. 9, Nov. 2020, pp. 1142-1165. https://rcr.colab.ws/publications/10.1070/RCR4995.
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Keywords

Astrochemistry
Cosmic ices
Low temperatures
Matrix isolation
photochemistry
Radiation chemistry
Reactive intermediates
Spectroscopy

Abstract

Recent progress in observational astronomy and astrophysics has stimulated intensive laboratory studies aimed at elucidating the mechanisms of evolution of molecular matter in interstellar space and various space objects. One of the most intriguing and rapidly developing areas of these studies is the so-called ``cold astrochemistry'' devoted to the complex processes occurring in astrophysical ices. In this context, the matrix isolation technique (known for decades) is a very useful approach for both interpreting the results of astrophysical observations and verifying possible mechanisms of key astrochemical processes. This review outlines the most important results of recent studies using the matrix isolation technique. In fact, the results of these studies contribute to "cold'' astrochemistry in two main aspects: (i) spectroscopy of astrochemically important molecules, ions and radicals stabilized in cryogenic matrices; (ii) experimental modeling of mechanisms of radiation-induced and ``in dark'' chemical reactions occurring in "cold'' space environments (interstellar, cometary and planetary ices). In the first aspect, special attention is paid to new spectroscopic data obtained using various methods (electronic and vibrational absorption spectroscopy, electron paramagnetic resonance spectroscopy). In the second aspect, we consider the chemical effects resulting from both direct excitation of isolated molecules and the transfer of energy initially absorbed by the medium. Special attention has been paid to recent studies of spectroscopic characteristics and radiation-induced evolution of matrix-isolated weak intermolecular complexes, which can be considered "building blocks'' for cold synthesis of complex molecules in the absence of diffusion mobility.

The bibliography includes 379 references .

Funders

Russian Foundation for Basic Research
19-13-50274

References

1.
A Serendipitous Journey
Dalgarno A.
Annual Review of Astronomy and Astrophysics , 2008
2.
The synthesis of large interstellar molecules
Herbst E.
International Reviews in Physical Chemistry , 2017
3.
rcr_90_9_1142_bib3
Agúndez
2018
4.
Reaction Networks for Interstellar Chemical Modelling: Improvements and Challenges
Wakelam V., Smith I.W., Herbst E., Troe J., Geppert W., Linnartz H., Öberg K., Roueff E., Agúndez M., Pernot P., Cuppen H.M., Loison J.C., Talbi D.
Space Science Reviews , 2010
5.
Suprathermal particles in astrochemistry
Shematovich V.I.
Russian Chemical Reviews , 2019
6.
Atom addition reactions in interstellar ice analogues
Linnartz H., Ioppolo S., Fedoseev G.
International Reviews in Physical Chemistry , 2015
7.
rcr_90_9_1142_bib7
Muñoz Caro
2018
9.
Extraterrestrial prebiotic molecules: photochemistryvs.radiation chemistry of interstellar ices
Arumainayagam C.R., Garrod R.T., Boyer M.C., Hay A.K., Bao S.T., Campbell J.S., Wang J., Nowak C.M., Arumainayagam M.R., Hodge P.J.
Chemical Society Reviews , 2019
10.
Experimental and theoretical studies of photoinduced reactions in the solid phase of the interstellar medium
Murga M.S., Wiebe D.S., Vasyunin A.I., Varakin V.N., Stolyarov A.V.
Russian Chemical Reviews , 2020
11.
Matrix Isolation Method for the Experimental Study of Unstable Species
Whittle E., Dows D.A., Pimentel G.C.
Journal of Chemical Physics , 1954
13.
Matrix isolation model studies on the radiation-induced transformations of small molecules of astrochemical and atmospheric interest
Feldman V.I., Ryazantsev S.V., Saenko E.V., Kameneva S.V., Shiryaeva E.S.
Radiation Physics and Chemistry , 2016
14.
Interstellar problems and matrix solutions
Allamandola L.J.
Journal of Molecular Structure , 1987
16.
X-ray radiolysis of C2 hydrocarbons in cryogenic media
Ryazantsev S.V., Zasimov P.V., Feldman V.I.
Radiation Physics and Chemistry , 2018
18.
PHOTODESTRUCTION OF RELEVANT INTERSTELLAR MOLECULES IN ICE MIXTURES HerveCottin
Cottin H., Moore M.H., Benilan Y.
Astrophysical Journal , 2003
19.
Cryogenic Photochemical Synthesis and Electronic Spectroscopy of Cyanotetracetylene
Szczepaniak U., Kołos R., Gronowski M., Chevalier M., Guillemin J., Turowski M., Custer T., Crépin C.
Journal of Physical Chemistry A , 2017
20.
Photochemical synthesis of the cyanodiacetylene HC(5)N: a cryogenic matrix experiment.
Coupeaud A., Kołos R., Couturier-Tamburelli I., Aycard J.P., Piétri N.
Journal of Physical Chemistry A , 2006
22.
Photochemistry of hydrogen peroxide in Kr and Xe matrixes
Khriachtchev L., Pettersson M., Jolkkonen S., Pehkonen S., Räsänen M.
Journal of Chemical Physics , 2000
23.
Correlation of infrared and UV-visible bands of matrix-isolated carbon clusters
Szczepanski J., Vala M.
The Journal of Physical Chemistry , 1991
24.
Electronic Absorption Spectra of Neutral Pentacene (C22H14) and Its Positive and Negative Ions in Ne, Ar, and Kr Matrices
Halasinski T.M., Hudgins D.M., Salama F., Allamandola L.J., Bally T.
Journal of Physical Chemistry A , 2000
26.
Electronic spectra of carbon chains and derivatives
Nagarajan R., Maier J.P.
International Reviews in Physical Chemistry , 2010
27.
Oxides of long carbon chains: Results obtained on IR and UV–vis absorptions
Strelnikov D., Reusch R., Krätschmer W.
Journal of Molecular Spectroscopy , 2007
28.
Fluorescence of protonated pyrene and coronene in neon matrices
Garkusha I., Fulara J., Maier J.P.
Journal of Molecular Structure , 2012
29.
The visible emission and absorption spectrum of C60
Sassara A., Zerza G., Chergui M., Negri F., Orlandi G.
Journal of Chemical Physics , 1997
30.
Spectroscopy of methylcyanodiacetylene revisited. Solid parahydrogen and solid neon matrix studies
Szczepaniak U., Gutiérrez-Quintanilla A., Crépin C., Guillemin J., Turowski M., Custer T., Kołos R.
Journal of Molecular Structure , 2020
31.
Matrix‐Isolation Applied to High‐Temperature and Interstellar Molecules: A Review
Weltner W.
Berichte der Bunsengesellschaft für physikalische Chemie , 1978
32.
rcr_90_9_1142_bib32
Symons
1981
34.
rcr_90_9_1142_bib34
Knight
1991
39.
Infrared Spectroscopic Evidence for the Species HNC
Milligan D.E., Jacox M.E.
Journal of Chemical Physics , 1963
40.
Matrix‐Isolation Infrared Spectrum of the Free Radical CCO
Jacox M.E., Milligan D.E., Moll N.G., Thompson W.E.
Journal of Chemical Physics , 1965
41.
Low-Temperature Infrared Study of Intermediates in the Photolysis of HNCO and DNCO
Jacox M.E., Milligan D.E.
Journal of Chemical Physics , 1964
43.
Detection of Ketenimine (CH2CNH) in Sagittarius B2(N) Hot Cores
Lovas F.J., Hollis J.M., Remijan A.J., Jewell P.R.
Astrophysical Journal , 2006
44.
Infrared Study of the Reactions of CH2 and NH with C2H2 and C2H4 in Solid Argon
Jacox [.E., Milligan D.E.
Journal of the American Chemical Society , 1963
45.
ESR Detection of the Cyanogen and Methylene Imino Free Radicals
Cochran E.L., Adrian F.J., Bowers V.A.
Journal of Chemical Physics , 1962
46.
rcr_90_9_1142_bib46
Wu
Phys. Chem. Chem. Phys. , 2017
47.
Spectroscopic Identification of H2 NSO and syn- and anti-HNSOH Radicals.
Dong X., Deng G., Wu Z., Xu J., Lu B., Trabelsi T., Francisco J.S., Zeng X.
Angewandte Chemie - International Edition , 2018
50.
Infrared spectra of the OH+ and H2O+ cations solvated in solid argon.
Zhou H., Yang R., Jin X., Zhou M.
Journal of Physical Chemistry A , 2005
51.
The infrared spectrum of HOOH+ trapped in solid neon.
Thompson W.E., Lugez C.L., Jacox M.E.
Journal of Chemical Physics , 2012
53.
rcr_90_9_1142_bib53
Kumagai
2014
55.
Infrared absorption of CH3O and CD3O radicals isolated in solid para-H2
Lee Y., Chou W., Johnson B.A., Tabor D.P., Sibert E.L., Lee Y.
Journal of Molecular Spectroscopy , 2015
57.
Photochemistry of H2S/SO2 mixtures in solid krypton
Isoniemi E., Khriachtchev L., Lundell J., Räsänen M.
Journal of Molecular Structure , 2001
58.
Infrared spectrum of carbon trisulfide in solid argon.
Ma R., Yuan D., Chen M., Zhou M., Wang X., Andrews L.
Journal of Physical Chemistry A , 2009
59.
Reaction of NH (X 3Σ-) with NO in Xenon Matrix: Infrared Detection of the HNNO Intermediate†
Laursen S.L., Delia A.E., Mitchell K.
Journal of Physical Chemistry A , 2000
60.
Vibrational and electronic energy levels of polyatomic transient molecules: Supplement 1
Jacox M.E.
Journal of Physical and Chemical Reference Data , 1990
61.
Vibrational and Electronic Energy Levels of Polyatomic Transient Molecules. Supplement B
Jacox M.E.
Journal of Physical and Chemical Reference Data , 2003
62.
rcr_90_9_1142_bib62
Jacox
63.
Spectroscopy and structure of free radicals stabilized in cryogenic matrices
Baskir E.G., Misochko E.Y., Nefedov O.M.
Russian Chemical Reviews , 2009
64.
Front Cover: Hydrogen‐Atom Tunneling in Metaphosphorous Acid (Chem. Eur. J. 37/2020)
Qian W., Chu X., Song C., Wu Z., Jiao M., Liu H., Zou B., Rauhut G., Tew D.P., Wang L., Zeng X.
Chemistry - A European Journal , 2020
65.
rcr_90_9_1142_bib65
Zhou
J. Am. Chem. Soc. , 2003
66.
The infrared spectra of the NH3-dn+ cations trapped in solid neon
Thompson W.E., Jacox M.E.
Journal of Chemical Physics , 2001
67.
Infrared spectrum of the NH4-d(n)+ cation trapped in solid neon.
Jacox M.E., ThompsonGuest researcher, National W.E.
Physical Chemistry Chemical Physics , 2005
68.
Infrared spectra and theoretical studies of the C2O3− anion isolated in solid argon
Zhou M., Zhang L., Chen M., Qin Q.
Journal of Chemical Physics , 2000
69.
rcr_90_9_1142_bib69
Lee
J. Chem. Phys. , 1998
70.
rcr_90_9_1142_bib70
Lugez
J. Chem. Phys. , 1999
71.
INFRARED SPECTRA OF (NO)-2 AND (NO)+2 ISOMERS TRAPPED IN SOLID NEON
Andrews L., Zhou M.
Journal of Chemical Physics , 1999
72.
Infrared spectra of cis- and trans-peroxynitrite anion, OONO-, in solid argon.
Liang B., Andrews L.
Journal of the American Chemical Society , 2001
73.
The infrared spectroscopy and photochemistry of NO(3) trapped in solid neon.
Jacox M.E., Thompson W.E.
Journal of Chemical Physics , 2008
74.
A 2E''-X2A2' transition of NO3 trapped in solid neon.
Jacox M.E., Thompson W.E.
Journal of Physical Chemistry A , 2009
75.
A Study of the Products of the Reaction of Phosphorus and Dioxygen
Bauschlicher C.W., Zhou M., Andrews L.
Journal of Physical Chemistry A , 2000
76.
Electronic transitions of S2− and S3− in neon matrixes
Shnitko I., Fulara J., Garkusha I., Nagy A., Maier J.P.
Chemical Physics , 2008
77.
Spectroscopy of OSSO and Other Sulfur Compounds Thought to be Present in the Venus Atmosphere.
Frandsen B.N., Farahani S., Vogt E., Lane J.R., Kjaergaard H.G.
Journal of Physical Chemistry A , 2020
78.
The vibrational spectra of molecular ions isolated in solid neon. XVI. SO2+, SO2−, and (SO2)2−
Forney D., Kellogg C.B., Thompson W.E., Jacox M.E.
Journal of Chemical Physics , 2000
79.
Isomers of SO3: Infrared absorption of OSOO in solid argon
Jou S., Shen M., Yu C., Lee Y.
Journal of Chemical Physics , 1996
80.
Capture of SO3 isomers in the oxidation of sulfur monoxide with molecular oxygen.
Wu Z., Lu B., Feng R., Xu J., Lu Y., Wan H., Eckhardt A.K., Schreiner P.R., Xie C., Guo H., Zeng X.
Chemical Communications , 2018
81.
Infrared Spectra of (CS2)2-Anion in Solid Neon and Argon
Yu L., Zeng A., Xu Q., Zhou M.
Journal of Physical Chemistry A , 2004
82.
The matrix isolation spectrum of the CH2+ ion
Bunker P.R., Kraemer W.P., Jensen P., Lee Y., Lee Y.
Journal of Molecular Spectroscopy , 2002
83.
rcr_90_9_1142_bib83
Jacox
J. Chem. Phys. , 2011
84.
Photodissociation and infrared spectra of ethylene cations in solid argon
Chen S., Liu M., Huang T., Chin C., Wu Y.
Chemical Physics Letters , 2015
85.
rcr_90_9_1142_bib85
Wu
J. Chem. Phys. , 2008
86.
Infrared absorption and electron paramagnetic resonance studies of vinyl radical in noble-gas matrices
Tanskanen H., Khriachtchev L., Räsänen M., Feldman V.I., Sukhov F.F., Orlov A.Y., Tyurin D.A.
Journal of Chemical Physics , 2005
87.
rcr_90_9_1142_bib87
Chin
Sci. Rep. , 2018
89.
Infrared spectra oftrans-HOCO, HCOOH+, and HCO2− trapped in solid neon
Forney D., Jacox M.E., Thompson W.E.
Journal of Chemical Physics , 2003
90.
Infrared spectra of HOCO+ and of the complex of H2 with CO2− trapped in solid neon
Jacox M.E., Thompson W.E.
Journal of Chemical Physics , 2003
91.
rcr_90_9_1142_bib91
Das
J. Chem. Phys. , 2016
92.
Spectroscopic Evidence for Aminomethylene (H-C̈-NH2 )-The Simplest Amino Carbene.
Eckhardt A.K., Schreiner P.R.
Angewandte Chemie - International Edition , 2018
94.
First isolation and spectroscopic observation of thiofulminic acid (HCNS).
Pasinszki T., Krebsz M., Bazsó G., Tarczay G.
Chemistry - A European Journal , 2009
95.
Photochemical generation of H2NCNX, H2NNCX, H2NC(NX) (X = O, S) in low-temperature matrices.
Vörös T., Lajgút G.G., Magyarfalvi G., Tarczay G.
Journal of Chemical Physics , 2017
96.
Photochemical Formation of Diazenecarbaldehyde (HNNCHO) and Diazenecarbothialdehyde (HNNCHS) in Low-Temperature Matrices.
Vörös T., Lajgút G.G., Magyarfalvi G., Tarczay G.
Journal of Physical Chemistry A , 2018
97.
Generation and spectroscopic identification of NCXNC and NCNCX (X = S, Se) in low-temperature inert matrices
Vörös T., Pacsai B., Magyarfalvi G., Tarczay G.
Journal of Molecular Spectroscopy , 2015
98.
rcr_90_9_1142_bib98
Lu
Chem. Commun. , 2019
99.
Photoinduced Sulfur-Nitrogen Bond Rotation and Thermal Nitrogen Inversion in Heterocumulene OSNSO.
Wu Z., Feng R., Xu J., Lu Y., Lu B., Yang T., Frenking G., Trabelsi T., Francisco J.S., Zeng X.
Journal of the American Chemical Society , 2018
100.
Heterocumulene Sulfinyl Radical OCNSO.
Wu Z., Liu Q., Xu J., Sun H., Li D., Song C., Andrada D.M., Frenking G., Trabelsi T., Francisco J.S., Zeng X.
Angewandte Chemie - International Edition , 2017
101.
Experimental observation of the 16-electron molecules SPN, SNP, and cyclic PSN.
Zeng X., Beckers H., Willner H., Francisco J.S.
Angewandte Chemie - International Edition , 2012
102.
The near-UV absorber OSSO and its isomers.
Wu Z., Wan H., Xu J., Lu B., Lu Y., Eckhardt A.K., Schreiner P.R., Xie C., Guo H., Zeng X.
Chemical Communications , 2018
103.
Photochemistry of HNSO2 in cryogenic matrices: spectroscopic identification of the intermediates and mechanism.
Chen C., Wang L., Zhao X., Wu Z., Bernhardt B., Eckhardt A.K., Schreiner P.R., Zeng X.
Physical Chemistry Chemical Physics , 2020
104.
Gas-Phase Generation and Decomposition of a Sulfinylnitrene into the Iminyl Radical OSN.
Wu Z., Li D., Li H., Zhu B., Sun H., Francisco J.S., Zeng X.
Angewandte Chemie - International Edition , 2015
105.
rcr_90_9_1142_bib105
Wu
Chem. – Eur. J. , 2018
106.
rcr_90_9_1142_bib106
Qin
Angew. Chem. , 2019
109.
Reaction of H + HONO in solid para-hydrogen: infrared spectrum of ˙ONH(OH).
Haupa K.A., Tielens A.G., Lee Y.
Physical Chemistry Chemical Physics , 2017
110.
The infrared spectra of OCS+ and OCS− trapped in solid neon
Lugez C.L., Thompson W.E., Jacox M.E.
Journal of Chemical Physics , 2001
111.
HSO2 isomers in rare-gas solids
Isoniemi E., Khriachtchev L., Lundell J., Räsänen M.
Physical Chemistry Chemical Physics , 2002
112.
Low-pressure pyrolysis of tBu2SO: synthesis and IR spectroscopic detection of HSOH.
Beckers H., Esser S., Metzroth T., Behnke M., Willner H., Gauss J., Hahn J.
Chemistry - A European Journal , 2006
113.
Observations of the Icy Universe
Boogert A.C., Gerakines P.A., Whittet D.C.
Annual Review of Astronomy and Astrophysics , 2015
114.
The Chemical Composition of Comets—Emerging Taxonomies and Natal Heritage
Mumma M.J., Charnley S.B.
Annual Review of Astronomy and Astrophysics , 2011
116.
Organosulfur Compounds Formed by Sulfur Ion Bombardment of Astrophysical Ice Analogs: Implications for Moons, Comets, and Kuiper Belt Objects
Ruf A., Bouquet A., Boduch P., Schmitt-Kopplin P., Vinogradoff V., Duvernay F., Urso R.G., Brunetto R., Le Sergeant d’Hendecourt L., Mousis O., Danger G.
Astrophysical Journal Letters , 2019
117.
Modeling sulfur depletion in interstellar clouds
Laas J.C., Caselli P.
Astronomy and Astrophysics , 2019
118.
Capture of the Sulfur Monoxide-Hydroxyl Radical Complex (•OH···OS).
Chen C., Lu B., Zhao X., Qian W., Liu J., Trabelsi T., Francisco J.S., Qin J., Li J., Wang L., Zeng X.
Journal of the American Chemical Society , 2020
119.
The chemistry in circumstellar envelopes of evolved stars: Following the origin of the elements to the origin of life
Ziurys L.M.
Proceedings of the National Academy of Sciences of the United States of America , 2006
120.
Perspective: C60+ and laboratory spectroscopy related to diffuse interstellar bands.
Campbell E.K., Maier J.P.
Journal of Chemical Physics , 2017
121.
Laboratory spectroscopy of astrophysically relevant carbon species
Zack L.N., Maier J.P.
Chemical Society Reviews , 2014
122.
Identification of H2CCC as a diffuse interstellar band carrier
Maier J.P., Walker G.A., Bohlender D.A., Mazzotti F.J., Raghunandan R., Fulara J., Garkusha I., Nagy A.
Astrophysical Journal , 2010
123.
Evidence for Diacetylene Cation as the Carrier of a Diffuse Interstellar Band
Krełowski J., Beletsky Y., Galazutdinov G.A., Kołos R., Gronowski M., LoCurto G.
Astrophysical Journal Letters , 2010
125.
Electronic spectrum of the diacetylene radical cation in solid rare gases
Bondybey V.E., English J.H.
Journal of Chemical Physics , 1979
126.
Detection of C5 in the Circumstellar Shell of IRC+10216
Bernath P.F., Hinkle K.H., Keady J.J.
Science , 1989
127.
C5 molecule: Structure and infrared frequencies
Vala M., Chandrasekhar T.M., Szczepanski J., Van Zee R., Weltner W.
Journal of Chemical Physics , 1989
128.
Electron‐paramagnetic‐resonance study of the structure of C4 in solid Ne
Jiang Q., Graham W.R.
Journal of Chemical Physics , 1991
129.
Electron spin resonance of the C6, C8, and C10 molecules
Van Zee R.J., Ferrante R.F., Zeringue K.J., Weltner W., Ewing D.W.
Journal of Chemical Physics , 1988
130.
The 3Σu− ← X3Σg− electronic absorption spectrum of linear C4 in a neon matrix
Freivogel P., Grutter M., Forney D., Maier J.P.
Chemical Physics Letters , 1996
131.
Electronic absorption spectra of linear carbon chains in neon matrices. IV. C2n+1 n=2–7
Forney D., Freivogel P., Grutter M., Maier J.P.
Journal of Chemical Physics , 1996
132.
Electronic absorption spectra of linear C6, C8 and cyclic C10, C12 in neon matrices
Grutter M., Wyss M., Riaplov E., Maier J.P., Peyerimhoff S.D., Hanrath M.
Journal of Chemical Physics , 1999
133.
Vacuum ultraviolet spectroscopy of the carbon molecule C3 in matrix isolated state: Experiment and theory
Monninger G., Förderer M., Gürtler P., Kalhofer S., Petersen S., Nemes L., Szalay P.G., Krätschmer W.
Journal of Physical Chemistry A , 2002
134.
INFRARED SPECTROSCOPIC STUDIES OF CARBON CLUSTERS TRAPPED IN SOLID PARAHYDROGEN
Miki M., Wakabayashi T., Momose T., Shida T.
The Journal of Physical Chemistry , 1996
135.
UV and IR absorption spectra of C3 embedded in solid para-hydrogen
Hoshina H., Kato Y., Morisawa Y., Wakabayashi T., Momose T.
Chemical Physics , 2004
136.
Isotopic study of new fundamentals and combination bands of linear C5, C7, and C9 in solid ar.
Gonzalez E., Rittby C.M., Graham W.R.
Journal of Physical Chemistry A , 2011
138.
PHOTOLYSIS OF ETHYNE IN SOLID NEON AND SYNTHESIS OF LONG-CHAIN CARBON CLUSTERS WITH VACUUM-ULTRAVIOLET LIGHT
Wu Y., Lin M., Chou S., Chen H., Lu H., Chen H., Cheng B.
Astrophysical Journal , 2010
139.
Electronic and infrared absorption spectra of linear and cyclic C6+ in a neon matrix.
Fulara J., Riaplov E., Batalov A., Shnitko I., Maier J.P.
Journal of Chemical Physics , 2004
140.
Electronic transitions of C5H(+) and C5H: neon matrix and CASPT2 studies.
Fulara J., Nagy A., Chakraborty A., Maier J.P.
Journal of Chemical Physics , 2016
141.
Electronic spectra of C6H+ and C6H3+ in the gas phase
Raghunandan R., Mazzotti F.J., Maier J.P.
Journal of the American Society for Mass Spectrometry , 2010
142.
FORMATION AND IDENTIFICATION OF INTERSTELLAR MOLECULE LINEAR C5H FROM PHOTOLYSIS OF METHANE DISPERSED IN SOLID NEON
Wu Y., Chen H., Camacho C., Witek H.A., Hsu S., Lin M., Chou S., Ogilvie J.F., Cheng B.
Astrophysical Journal , 2009
144.
Synthesis and spectroscopy of cyanotriacetylene (HC7N) in solid argon
Couturier-Tamburelli I., Piétri N., Crépin C., Turowski M., Guillemin J.-., Kołos R.
Journal of Chemical Physics , 2014
145.
Electronic absorption and phosphorescence of cyanodiacetylene.
Turowski M., Crépin C., Gronowski M., Guillemin J., Coupeaud A., Couturier-Tamburelli I., Piétri N., Kołos R.
Journal of Chemical Physics , 2010
146.
Low Temperature Synthesis and Phosphorescence of Methylcyanotriacetylene.
Szczepaniak U., Kołos R., Gronowski M., Guillemin J., Crépin C.
Journal of Physical Chemistry A , 2017
147.
The C3N- anion: first detection of its electronic luminescence in rare gas solids.
Turowski M., Gronowski M., Boyé-Péronne S., Douin S., Monéron L., Crépin C., Kołos R.
Journal of Chemical Physics , 2008
149.
Low temperature Raman spectra of cyanobutadiyne (HC5N)
Turowski M., Crépin C., Douin S., Gronowski M., Couturier-Tamburelli I., Piétri N., Wasiak A., Kołos R.
Vibrational Spectroscopy , 2012
150.
Spectroscopy of cyanodiacetylene in solid argon and the photochemical generation of isocyanodiacetylene.
Coupeaud A., Turowski M., Gronowski M., Piétri N., Couturier-Tamburelli I., Kołos R., Aycard J.
Journal of Chemical Physics , 2007
152.
Matrix isolation IR spectroscopic and ab initio studies of C(3)N(-) and related species.
Kołos R., Gronowski M., Botschwina P.
Journal of Chemical Physics , 2008
153.
C(5)N(-) anion and new carbenic isomers of cyanodiacetylene: a matrix isolation IR study.
Coupeaud A., Turowski M., Gronowski M., Piétri N., Couturier-Tamburelli I., Kołos R., Aycard J.
Journal of Chemical Physics , 2008
154.
Matrix isolation, zero-field splitting parameters, and photoreactions of septet 2,4,6-trinitrenopyrimidines.
Chapyshev S.V., Ushakov E.N., Neuhaus P., Sander W.
Journal of Organic Chemistry , 2014
156.
C4O and C6O molecules
Van Zee R.J., Smith G.R., Weltner W.
Journal of the American Chemical Society , 1988
157.
Electronic absorption spectra of C7O and C7O+ in 6 K neon matrices
Joseph S.M., Fulara J., Garkusha I., Maier J.P.
Molecular Physics , 2013
158.
Electronic absorption spectrum of HC7O+
Chakraborty A., Fulara J., Maier J.P.
Molecular Physics , 2016
159.
Infrared Absorption Spectroscopy of Small Carbon−Sulfur Clusters Isolated in Solid Ar
Szczepanski J., Hodyss R., Fuller J., Vala M.
Journal of Physical Chemistry A , 1999
160.
rcr_90_9_1142_bib160
Wang
J. Phys. Chem. A , 2003
161.
Spectroscopy of prospective interstellar ions and radicals isolated in para-hydrogen matrices
Tsuge M., Tseng C., Lee Y.
Physical Chemistry Chemical Physics , 2018
162.
Infrared spectra of free radicals and protonated species produced in para-hydrogen matrices.
Bahou M., Das P., Lee Y., Wu Y., Lee Y.
Physical Chemistry Chemical Physics , 2014
165.
Interstellar Polycyclic Aromatic Hydrocarbon Molecules
Tielens A.G.
Annual Review of Astronomy and Astrophysics , 2008
166.
Infrared spectra of ovalene (C32H14) and hydrogenated ovalene (C32H15˙) in solid para-hydrogen.
Tsuge M., Bahou M., Wu Y., Allamandola L., Lee Y.
Physical Chemistry Chemical Physics , 2016
168.
Electronic and vibrational spectra of matrix isolated anthracene radical cations - Experimental and theoretical aspects
Szczepanski J., Vala M., Talbi D., Parisel O., Ellinger Y.
Journal of Chemical Physics , 1993
171.
rcr_90_9_1142_bib171
Leger
Astron. Astrophys. , 1995
172.
Vibrational and electronic spectra of matrix-isolated tetracene cations
Szczepanski J., Drawdy J., Wehlburg C., Vala M.
Chemical Physics Letters , 1995
174.
rcr_90_9_1142_bib174
Ehrenfreund
Astron. Astrophys. , 1995
175.
Laboratory Infrared Spectroscopy of PAHs
Oomens J.
EAS Publications Series , 2011
180.
rcr_90_9_1142_bib180
Maier
Philos. Trans. R. Soc. London, Ser. A. Math. Phys. Eng. Sci. , 2016
182.
Laboratory confirmation of C60+ as the carrier of two diffuse interstellar bands
Campbell E.K., Holz M., Gerlich D., Maier J.P.
Nature , 2015
183.
Detection of C60 and C70 in a Young Planetary Nebula
Cami J., Bernard-Salas J., Peeters E., Malek S.E.
Science , 2010
184.
C_(60) in Reflection Nebulae
Sellgren K., Werner M.W., Ingalls J.G., Smith J.D., Carleton T.M., Joblin C.
Astrophysical Journal Letters , 2010
185.
High-Resolution Infrared Absorption Spectroscopy of C60 Molecules and Clusters in Parahydrogen Solids
Sogoshi N., Kato Y., Wakabayashi T., Momose T., Tam S., DeRose M.E., Fajardo M.E.
Journal of Physical Chemistry A , 2000
186.
Electronic and infrared spectra of C+60 and C−60 in neon and argon matrices
Fulara J., Jakobi M., Maier J.P.
Chemical Physics Letters , 1993
187.
Laser-Induced Fluorescence and Phosphorescence of C60 Isolated in Solid Ne
Hung W., Ho C., Liu C., Lee Y.
The Journal of Physical Chemistry , 1996
188.
On observing C60+and C602+in laboratory and space
Strelnikov D., Kern B., Kappes M.M.
Astronomy and Astrophysics , 2015
189.
IR Absorptions of C60+ and C60– in Neon Matrixes
Kern B., Strelnikov D., Weis P., Böttcher A., Kappes M.M.
Journal of Physical Chemistry A , 2013
190.
IR and UV-NIR Absorption Spectroscopy of Matrix-Isolated C70+ and C70–
Kern B., Böttcher A., Strelnikov D.
Journal of Physical Chemistry A , 2016
191.
Electronic spectra of the C70 molecule and C70+, C70− ions in neon matrices
Fulara J., Jakobi M., Maier J.P.
Chemical Physics Letters , 1993
193.
Triplet states of fullerenes C60 and C70. Electron paramagnetic resonance spectra, photophysics, and electronic structures
Wasielewski M.R., O'Neil M.P., Lykke K.R., Pellin M.J., Gruen D.M.
Journal of the American Chemical Society , 1991
194.
High resolution EPR spectroscopy of C60F and C70F in solid argon: Reassignment of C70F regioisomers
Misochko E.Y., Akimov A.V., Belov V.A., Tyurin D.A., Laikov D.N.
Journal of Chemical Physics , 2007
195.
The Ice Survey Opportunity of ISO
Dartois E.
Space Science Reviews , 2005
196.
Interstellar Ice: The Infrared Space Observatory Legacy
Gibb E.L., Whittet D.C., Boogert A.C., Tielens A.G.
Astrophysical Journal, Supplement Series , 2004
197.
Evolution of Interstellar Ices
Allamandola L.J., Bernstein M.P., Sandford S.A., Walker R.L.
Space Science Reviews , 1999
198.
rcr_90_9_1142_bib198
Irvine
Orig. Life , 1999
199.
Matrix Isolation and ab Initio Studies of 1:1 Hydrogen-Bonded Complexes HCN−H2O and HNC−H2O Produced by Photolysis of Formaldoxime
Heikkilä A., Pettersson M., Lundell J., Khriachtchev L., Räsänen M.
Journal of Physical Chemistry A , 1999
200.
Photochemistry of the H2O/CO System Revisited: The HXeOH···CO Complex in a Xenon Matrix
Ryazantsev S.V., Lundell J., Feldman V.I., Khriachtchev L.
Journal of Physical Chemistry A , 2017
202.
Infrared spectra and intensities of the H2O and N2 complexes in the range of the nu1- and nu3-bands of water.
Kuma S., Slipchenko M.N., Kuyanov K.E., Momose T., Vilesov A.F.
Journal of Physical Chemistry A , 2006
207.
Vibrational spectra and structures of H2O-NO, HDO-NO, and D2O-NO complexes. An IR matrix isolation and DFT study.
Dozova N., Krim L., Alikhani M.E., Lacome N.
Journal of Physical Chemistry A , 2006
208.
The matrix isolation infrared spectrum of the water—ammonia complex
Yeo G.A., Ford T.A.
Spectrochimica Acta Part A Molecular Spectroscopy , 1991
210.
rcr_90_9_1142_bib210
Ryazantsev
Phys. Chem. Chem. Phys. , 2015
211.
Isomers of the acetic acid-water complex trapped in an argon matrix.
Haupa K., Bil A., Barnes A., Mielke Z.
Journal of Physical Chemistry A , 2014
213.
The (CH2)2O-H2O hydrogen bonded complex. Ab Initio calculations and Fourier transform infrared spectroscopy from neon matrix and a new supersonic jet experiment coupled to the infrared AILES beamline of synchrotron SOLEIL.
Cirtog M., Asselin P., Soulard P., Tremblay B., Madebène B., Alikhani M.E., Georges R., Moudens A., Goubet M., Huet T.R., Pirali O., Roy P.
Journal of Physical Chemistry A , 2011
215.
Transient H2O Infrared Satellite Peaks Produced in UV Irradiated Formic Acid Doped Solid Parahydrogen
Kufeld K.A., Wonderly W.R., Paulson L.O., Kettwich S.C., Anderson D.T.
Journal of Physical Chemistry Letters , 2012
216.
Study of complexes of water and ammonia molecules in He droplets
Kuma S., Slipchenko M.N., Momose T., Vilesov A.F.
Chemical Physics Letters , 2007
217.
rcr_90_9_1142_bib217
Duvernay
J. Phys. Chem. A , 2005
218.
UV Photolysis Products of Propiolic Acid in Noble-Gas Solids
Isoniemi E., Khriachtchev L., Makkonen M., Räsänen M.
Journal of Physical Chemistry A , 2006
219.
Spectroscopic and Computational Characterization of the HCO···H2O Complex
Cao Q., Berski S., Räsänen M., Latajka Z., Khriachtchev L.
Journal of Physical Chemistry A , 2013
220.
rcr_90_9_1142_bib220
Noble
Astron. Astrophys. , 2017
221.
Formation of coronene:water complexes: FTIR study in argon matrices and theoretical characterisation.
Simon A., Noble J.A., Rouaut G., Moudens A., Aupetit C., Iftner C., Mascetti J.
Physical Chemistry Chemical Physics , 2017
222.
Photochemistry of pyrene with water at low temperature: study of atmospherical and astrochemical interest.
Guennoun Z., Aupetit C., Mascetti J.
Journal of Physical Chemistry A , 2011
225.
Conformational dynamics of the CO:CO2 complex in argon matrices. I. Thermodynamical considerations derived from the observed kinetics
Raducu V., Gauthier‐Roy B., Dahoo R., Abouaf‐Marguin L., Langlet J., Caillet J., Allavena M.
Journal of Chemical Physics , 1996
227.
Matrix Isolation and Ab Initio Study of the Hydrogen-Bonded H2O2-CO Complex
Lundell J., Jolkkonen S., Khriachtchev L., Pettersson M., Räsänen M.
Chemistry - A European Journal , 2001
228.
Matrix isolation spectra and ab initio calculations of isothiocyanic acid complexes with carbon monoxide
Wierzejewska M., Olbert-Majkut A.
Journal of Physical Chemistry A , 2003
230.
Photodissociation of formyl fluoride in rare gas matrixes.
Ahokas J.M., Vaskonen K.J., Kunttu H.M.
Journal of Physical Chemistry A , 2006
233.
Matrix isolation and ab initio studies of the H2SCO complex
Lundell J., Nordquist E., Räsänen M.
Journal of Molecular Structure , 1997
234.
rcr_90_9_1142_bib234
Das
J. Chem. Phys. , 2014
236.
Infrared spectrum of the complex of formaldehyde with carbon dioxide in argon and nitrogen matrices.
Van der Zwet G.P., Allamandola L.J., Baas F., Greenberg J.M.
Journal of Molecular Structure , 1989
237.
VUV irradiation of carbon dioxide (CO2) and ammonia (NH3) complexes in argon matrix
Bossa J.B., Duvernay F., Theulé P., Borget F., Chiavassa T.
Chemical Physics , 2008
240.
Matrix isolation and ab initio studies of oxalic acid
Nieminen J., Rasanen M., Murto J.
The Journal of Physical Chemistry , 1992
242.
The CO2 complexes with HOO and HO in argon matrices
Svensson T., Nelander B., Karlström G.
Chemical Physics , 2001
243.
Matrix Isolation and Ab Initio Study of Trans−Trans and Trans−Cis Dimers of Formic Acid
Marushkevich K., Khriachtchev L., Lundell J., Domanskaya A., Räsänen M.
Journal of Physical Chemistry A , 2010
244.
Conformation resolved induced infrared activity: trans- and cis-formic acid isolated in solid molecular hydrogen.
Paulson L.O., Anderson D.T., Lundell J., Marushkevich K., Melavuori M., Khriachtchev L.
Journal of Physical Chemistry A , 2011
247.
Noncovalent complexes between dimethyl ether and formic acid--an ab initio and matrix isolation study.
Sánchez-García E., Studentkowski M., Montero L.A., Sander W.
ChemPhysChem , 2005
248.
Matrix Isolation Infrared Spectroscopy of an O-H···π Hydrogen-Bonded Complex between Formic Acid and Benzene.
Banerjee P., Bhattacharya I., Chakraborty T.
Journal of Physical Chemistry A , 2016
250.
Conformation-dependent chemical reaction of formic acid with an oxygen atom
Khriachtchev L., Domanskaya A., Marushkevich K., Räsänen M., Grigorenko B., Ermilov A., Andrijchenko N., Nemukhin A.
Journal of Physical Chemistry A , 2009
251.
The S–H⋯N versus O–H⋯N hydrogen bonding in the ammonia complexes with CH3OH and CH3SH
Grzechnik K., Rutkowski K., Mielke Z.
Journal of Molecular Structure , 2012
253.
Vacuum ultraviolet (VUV) photodecomposition of urea isolated in cryogenic matrix: first detection of isourea.
Duvernay F., Chiavassa T., Borget F., Aycard J.
Journal of Physical Chemistry A , 2005
256.
rcr_90_9_1142_bib256
Viswanathan
2006
257.
rcr_90_9_1142_bib257
Mardyukov
2012
258.
rcr_90_9_1142_bib258
Anastasio
2013
259.
rcr_90_9_1142_bib259
Feldman
2013
261.
Solar cycle minimum measurements of the solar extreme ultraviolet spectral irradiance on 14 April 2008
Chamberlin P.C., Woods T.N., Crotser D.A., Eparvier F.G., Hock R.A., Woodraska D.L.
Geophysical Research Letters , 2009
262.
On photochemistry of water in solid Xe: Thermal and light-induced decomposition of HXeOH and HXeH and formation of H2O2
Khriachtchev L., Tanskanen H., Pettersson M., Räsänen M., Ahokas J., Kunttu H., Feldman V.
Journal of Chemical Physics , 2002
263.
Infrared Spectrum of the Matrix‐Isolated OH Radical
Acquista N., Schoen L.J., Lide D.R.
Journal of Chemical Physics , 1968
264.
Cage effect on the photodissociation of water in xenon matrixes
Schriever R., Chergui M., Schwentner N.
The Journal of Physical Chemistry , 1991
265.
Formation of HXeO in a xenon matrix: Indirect evidence of production, trapping, and mobility of XeO (1 1Σ+) in solid Xe
Kiviniemi T., Pettersson M., Khriachtchev L., Räsänen M., Runeberg N.
Journal of Chemical Physics , 2004
266.
HXeSH, the First Example of a Xenon−Sulfur Bond
Pettersson M., Lundell J., Khriachtchev L., Isoniemi E., Räsänen M.
Journal of the American Chemical Society , 1998
267.
Branching ratios and radiative rates of matrix-isolated NH in argon: The b 1Σ+→a 1Δ, X 3Δ− and a 1Δ− transitions
Ramsthaler-Sommer A., Becker A.C., Van Riesenbeck N., Lodemann K.-., Schurath U.
Chemical Physics , 1990
269.
Isomers of SO2: Infrared absorption of SOO in solid argon
Chen L., Lee C., Lee Y.
Journal of Chemical Physics , 1996
272.
Nonstationary processes in matrix-isolated methane probed by optical and current emission spectroscopy
Savchenko E.V., Khyzhniy I.V., Uyutnov S.A., Bludov M.A., Bondybey V.E.
Journal of Molecular Structure , 2020
273.
The Infrared and Near-Infrared Spectra of HCC and DCC Trapped in Solid Neon
Forney D., Jacox M.E., Thompson W.E.
Journal of Molecular Spectroscopy , 1995
274.
Chapter 10. Rare-gas matrices, their photochemistry and dynamics: recent advances in selected areas
E. Bondybey V., Räsänen M., Lammers A.
Annual Reports Section C (Physical Chemistry) , 1999
275.
Vacuum‐Ultraviolet Photolysis of Acetylene in Inert Matrices. Spectroscopic Study of the Species C2
Milligan D.E., Jacox M.E., Abouaf‐Marguin L.
Journal of Chemical Physics , 1967
278.
Matrix-controlled photochemistry of benzene and pyridine
Johnstone D.E., Sodeau J.R.
The Journal of Physical Chemistry , 1991
279.
UV Photochemistry of Benzene and Cyclohexadienyl Radical in Solid Parahydrogen
Toh S.Y., Djuricanin P., Momose T., Miyazaki J.
Journal of Physical Chemistry A , 2015
281.
Vibrational and Electronic Spectroscopy of the Fluorene Cation
Szczepanski J., Banisaukas J., Vala M., Hirata S., Bartlett R.J., Head-Gordon M.
Journal of Physical Chemistry A , 2001
283.
Infrared Spectroscopy of Matrix-Isolated Neutral and Ionized Anthracoronene in Argon.
de Barros A.L., Mattioda A.L., Korsmeyer J.M., Ricca A.
Journal of Physical Chemistry A , 2018
284.
Infrared Spectroscopy of Matrix-Isolated Polycyclic Aromatic Hydrocarbon Ions. 5. PAHs Incorporating a Cyclopentadienyl Ring †
Hudgins D.M., Bauschlicher C.W., Allamandola L.J., Fetzer J.C.
Journal of Physical Chemistry A , 2000
286.
Photodissociation thresholds of OH produced from CH3OH in solid neon and argon
Cheng B., Liu C., Lo W., Lee Y.
Nuclear Instruments and Methods in Physics Research, Section A: Accelerators, Spectrometers, Detectors and Associated Equipment , 2001
287.
Matrix isolation study of the infrared spectrum of thioformaldehyde
Jacox M.E., Milligan D.E.
Journal of Molecular Spectroscopy , 1975
288.
Photodissociation of Formaldehyde in Rare Gas (Xe, Kr, Ar, and Ne) Matrixes
Vaskonen K.J., Kunttu H.M.
Journal of Physical Chemistry A , 2003
289.
rcr_90_9_1142_bib289
Lundell
J. Phys. Chem. , 1995
291.
rcr_90_9_1142_bib291
Khriachtchev
J. Chem. Phys. , 2006
294.
The CNO free radical and its isomerization in inert-gas matrices
Bondybey V.E., English J.H., Mathews C.W., Contolini R.J.
Chemical Physics Letters , 1981
296.
New data on photochemistry of the interstellar molecule: HNCS. Identification of the S···HCN complex.
Krupa J., Kosendiak I., Wierzejewska M.
Physical Chemistry Chemical Physics , 2015
297.
rcr_90_9_1142_bib297
Maier
Liebigs Ann. , 1996
298.
Matrix isolation study on the 1:1 hydrogen-bonded complexes [H, C, N] … [H, C, N, O]
Keresztes B., Csonka I.P., Lajgút G.G., Bazsó G., Tarczay G.
Journal of Molecular Structure , 2020
301.
Infrared and EPR spectroscopic observation of novel open-shell species: the fluoroiminomethyl radical (FC*==NH) in solid argon.
Misochko E.Y., Goldschleger I.U., Akimov A.V., Wight C.A.
Journal of the American Chemical Society , 2001
302.
A 1:1 complex between a hydroxyl radical and ozone
Engdahl A., Nelander B.
Journal of Chemical Physics , 2005
303.
VUV photochemistry of the H2O⋯CO complex in noble-gas matrices: formation of the OH⋯CO complex and the HOCO radical
Ryazantsev S.V., Duarte L., Feldman V.I., Khriachtchev L.
Physical Chemistry Chemical Physics , 2017
304.
The Role of Low-Energy (≤ 20 eV) Electrons in Astrochemistry
Boyer M.C., Rivas N., Tran A.A., Verish C.A., Arumainayagam C.R.
Surface Science , 2016
305.
Cosmic-ray astrochemistry.
Indriolo N., McCall B.J.
Chemical Society Reviews , 2013
306.
rcr_90_9_1142_bib306
Abdulgalil
Philos. Trans. R. Soc. London, Ser. A. Math. Phys. Eng. Sci. , 2013
307.
Non-thermal ion desorption from an acetonitrile (CH3CN) astrophysical ice analogue studied by electron stimulated ion desorption.
Ribeiro F.D., Almeida G.C., Garcia-Basabe Y., Wolff W., Boechat-Roberty H.M., Rocco M.L.
Physical Chemistry Chemical Physics , 2015
308.
X-RAY IRRADIATION OF H2O + CO ICE MIXTURES WITH SYNCHROTRON LIGHT
Jiménez-Escobar A., Chen Y.-., Ciaravella A., Huang C.-., Micela G., Cecchi-Pestellini C.
Astrophysical Journal , 2016
309.
SOFT X-RAY IRRADIATION OF PURE CARBON MONOXIDE INTERSTELLAR ICE ANALOGUES
Ciaravella A., Jiménez-Escobar A., Muñoz Caro G.M., Cecchi-Pestellini C., Candia R., Giarrusso S., Barbera M., Collura A.
Astrophysical Journal Letters , 2012
310.
X-ray photodesorption from water ice in protoplanetary disks and X-ray-dominated regions
Dupuy R., Bertin M., Féraud G., Hassenfratz M., Michaut X., Putaud T., Philippe L., Jeseck P., Angelucci M., Cimino R., Baglin V., Romanzin C., Fillion J.-.
Nature Astronomy , 2018
313.
SIDE GROUP ADDITION TO THE POLYCYCLIC AROMATIC HYDROCARBON CORONENE BY PROTON IRRADIATION IN COSMIC ICE ANALOGS
Bernstein M.P., Moore M.H., Elsila J.E., Sandford S.A., Allamandola L.J., Zare R.N.
Astrophysical Journal , 2002
314.
Energetic processing of laboratory ice analogs: UV photolysis versus ion bombardment
Gerakines P.A., Moore M.H., Hudson R.L.
Journal of Geophysical Research , 2001
315.
Feldman V.I., Lehnig M., Such P., Langkilde F.W., Wilbrandt R., Niinistö L., Styring S., Tommos C., Warncke K., Wood B.R.
Acta Chemica Scandinavica , 1997
317.
An ESR investigation of the carbon 17O-monoxide(1+) cation radical isolated in a neon matrix at 4 K
Knight L.B., Steadman J.
Journal of the American Chemical Society , 1984
318.
ESR investigations of H2O+, HDO+, D2O+, and H2 17O+ isolated in neon matrices at 4 K
Knight L.B., Steadman J.
Journal of Chemical Physics , 1983
321.
Theoretical and neon matrix electron spin resonance studies of the methanol cation: CH3OH+, CH3OD+, CH2DOH+, and 13CH3OH+
Knight L.B., Kerr K., Villanueva M., McKinley A.J., Feller D.
Journal of Chemical Physics , 1992
322.
High resolution ESR spectroscopy and structure of the acetaldehyde radical cation (CH3CHO+) in neon matrices at 4 K: comparison with results in freon matrices
Knight L.B., Gregory B.W., Cobranchi S.T., Williams F., Qin X.Z.
Journal of the American Chemical Society , 1988
323.
Radical cations in condensed phases
Symons M.C.
Chemical Society Reviews , 1984
324.
Structure of radical cations of some methyl-substituted alkanes: ESR and INDO MO studies
Shiotani M., Yano A., Ohta N., Ichikawa T.
Chemical Physics Letters , 1988
325.
Structure and reaction of methylcyclohexane radical cation: ESR studies
Shiotani M., Ohta N., Ichikawa T.
Chemical Physics Letters , 1988
326.
rcr_90_9_1142_bib326
Lund
1991
328.
rcr_90_9_1142_bib328
Bally
1991
330.
Photoisomerization and Infrared Spectra of Allene and Propyne Cations in Solid Argon
Liu M., Chen S., Chin C., Huang T., Chen H., Wu Y.
Journal of Physical Chemistry Letters , 2015
331.
Identification of a Simplest Hypervalent Hydrogen Fluoride Anion in Solid Argon
Liu M., Chen H., Chin C., Huang T., Chen Y., Wu Y.
Scientific Reports , 2017
332.
rcr_90_9_1142_bib332
Huang
J. Chem. Phys. , 2017
334.
Stabilisation and reactions of aliphatic radical cations produced by fast electron irradiation in solid argon matrices
Feldman V., Sukhov F., Orlov A., Tyulpina I.
Physical Chemistry Chemical Physics , 2003
338.
Radiation-induced transformations of isolated CH3CN molecules in noble gas matrices
Kameneva S.V., Volosatova A.D., Feldman V.I.
Radiation Physics and Chemistry , 2017
342.
Radiation-induced synthesis of formic acid in the H2O–CO system: A matrix isolation study
Ryazantsev S.V., Zasimov P.V., Feldman V.I.
Chemical Physics Letters , 2020
343.
Surface formation of HCOOH at low temperature
Ioppolo S., Cuppen H.M., van Dishoeck E.F., Linnartz H.
Monthly Notices of the Royal Astronomical Society , 2010
344.
rcr_90_9_1142_bib344
Zasimov
Mon. Not. R. Astron. Soc. , 2020
345.
Capture of hydroxymethylene and its fast disappearance through tunnelling
Schreiner P.R., Reisenauer H.P., Pickard IV F.C., Simmonett A.C., Allen W.D., Mátyus E., Császár A.G.
Nature , 2008
346.
Tunneling Control of Chemical Reactions: The Third Reactivity Paradigm.
Schreiner P.R.
Journal of the American Chemical Society , 2017
347.
Competitive nitrogen versus carbon tunneling.
Nunes C.M., Eckhardt A.K., Reva I., Fausto R., Schreiner P.R.
Journal of the American Chemical Society , 2019
348.
Trans-cis molecular photoswitching in interstellar Space.
Cuadrado S., Goicoechea J.R., Roncero O., Aguado A., Tercero B., Cernicharo J.
Astronomy and Astrophysics , 2016
351.
rcr_90_9_1142_bib351
Bazsó
J. Phys. Chem. A , 2012
354.
Conformational Switching of HOCO Radical: Selective Vibrational Excitation and Hydrogen-Atom Tunneling
Ryazantsev S.V., Feldman V.I., Khriachtchev L.
Journal of the American Chemical Society , 2017
355.
What are the intermediates that could react in the interstellar ices
Borget F., Duvernay F., Danger G., Theulé P., Vinogradoff V., Mispelaer F., Müller S., Grote D., Chiavassa T., Bossa J.
Journal of Physical Organic Chemistry , 2014
356.
rcr_90_9_1142_bib356
Johnson
Phys. Chem. Chem. Phys. , 2014
357.
Mobility of atomic hydrogen in solid krypton and xenon
Eberlein J., Creuzburg M.
Journal of Chemical Physics , 1997
358.
Reactions in Rare Gas Matrices – Matrix and Site Effects
Haas Y., Samuni U.
Progress in Reaction Kinetics and Mechanism , 1998
359.
Isotopic effect on thermal mobility of atomic hydrogen in solid xenon
Khriachtchev L., Tanskanen H., Pettersson M., Räsänen M., Feldman V., Sukhov F., Orlov A., Shestakov A.F.
Journal of Chemical Physics , 2002
361.
Photodepletion and dynamics of oxygen atoms in xenon matrices
Ryan E.T., Weitz E.
Journal of Chemical Physics , 1993
362.
Photodissociation of F2 and mobility of F atoms in crystalline argon
Feld J., Kunttu H., Apkarian V.A.
Journal of Chemical Physics , 1990
363.
Quantum tunneling of oxygen atoms on very cold surfaces.
Minissale M., Congiu E., Baouche S., Chaabouni H., Moudens A., Dulieu F., Accolla M., Cazaux S., Manicó G., Pirronello V.
Physical Review Letters , 2013
365.
Visible spectroscopy of matrix isolated HCO: The 2A″(Π)←X 2A′ transition
van Ijzendoorn L.J., Allamandola L.J., Baas F., Greenberg J.M.
Journal of Chemical Physics , 1983
367.
Formation mechanism of glycolaldehyde and ethylene glycol in astrophysical ices from HCO•and•CH2OH recombination: an experimental study
Butscher T., Duvernay F., Theule P., Danger G., Carissan Y., Hagebaum-Reignier D., Chiavassa T.
Monthly Notices of the Royal Astronomical Society , 2015
372.
Reactions of Atomic Hydrogen with Formic Acid and Carbon Monoxide in Solid Parahydrogen I: Anomalous Effect of Temperature
Paulson L.O., Mutunga F.M., Follett S.E., Anderson D.T.
Journal of Physical Chemistry A , 2014
373.
Reaction of atomic hydrogen with formic acid
Cao Q., Berski S., Latajka Z., Räsänen M., Khriachtchev L.
Physical Chemistry Chemical Physics , 2014
374.
Diffusion‐limited geminate recombination of O+O2 in solid xenon
Benderskii A.V., Wight C.A.
Journal of Chemical Physics , 1996
375.
Reactions of atomic oxygen with ethene in solid argon. The infrared spectrum of vinyl alcohol
Hawkins M., Andrews L.
Journal of the American Chemical Society , 1983
376.
Reaction of Oxygben Atoms with Acetylene to Form Ketene
Haller I., Pimentel G.C.
Journal of the American Chemical Society , 1962
377.
rcr_90_9_1142_bib377
Yang
J. Chem. Phys. , 2004
379.
Reaction between atomic N(4S) and molecular CO at very low temperature: possible formation of HNCO in the Oort cloud
Nourry S., Zins E., Krim L.
Monthly Notices of the Royal Astronomical Society , 2015