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Time-resolved IR chemiluminescence in gas-phase chemical kinetics

Evgenii Nikolaevich Chesnokov ¹

Evgenii Nikolaevich Chesnokov

Viktor Nikolaevich Panfilov ¹

Viktor Nikolaevich Panfilov

¹ Institute of Chemical Kinetics and Combustion, Siberian Branch of the Russian Academy of Science

10.1070/RC1999v068n03ABEH000465

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Published 30 November 1998

Communication , Volume 68, Issue 3, 171-181

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1999, Volume 68, Issue 3

1 March 1999

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Chesnokov E. N., Panfilov V. N. Time-resolved IR chemiluminescence in gas-phase chemical kinetics // Russian Chemical Reviews. 1999. Vol. 68. No. 3. pp. 171-181.

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Chesnokov E. N., Panfilov V. N. Time-resolved IR chemiluminescence in gas-phase chemical kinetics // Russian Chemical Reviews. 1999. Vol. 68. No. 3. pp. 171-181.

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TY - JOUR

DO - 10.1070/RC1999v068n03ABEH000465

UR - https://rcr.colab.ws/publications/10.1070/RC1999v068n03ABEH000465

TI - Time-resolved IR chemiluminescence in gas-phase chemical kinetics

T2 - Russian Chemical Reviews

AU - Chesnokov, Evgenii Nikolaevich

AU - Panfilov, Viktor Nikolaevich

PY - 1999

DA - 1998/11/30

PB - ANO Editorial Board of the journal Uspekhi Khimii

SP - 171-181

IS - 3

VL - 68

ER -

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@article{1999_Chesnokov,

author = {Evgenii Nikolaevich Chesnokov and Viktor Nikolaevich Panfilov},

title = {Time-resolved IR chemiluminescence in gas-phase chemical kinetics},

journal = {Russian Chemical Reviews},

year = {1999},

volume = {68},

publisher = {ANO Editorial Board of the journal Uspekhi Khimii},

month = {Nov},

url = {https://rcr.colab.ws/publications/10.1070/RC1999v068n03ABEH000465},

number = {3},

pages = {171--181},

doi = {10.1070/RC1999v068n03ABEH000465}

}

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Chesnokov, Evgenii Nikolaevich, and Viktor Nikolaevich Panfilov. “Time-resolved IR chemiluminescence in gas-phase chemical kinetics.” Russian Chemical Reviews, vol. 68, no. 3, Nov. 1999, pp. 171-181. https://rcr.colab.ws/publications/10.1070/RC1999v068n03ABEH000465.

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Abstract

The time-resolved IR chemiluminescence method based on the study of the chemiluminescence of vibrationally excited molecules formed in chemical reactions is discussed. The approaches used in the study of elementary reactions and complex processes are systematised. The technique is compared with other methods for the study of gas-phase chemical kinetics. The bibliography includes 76 references.

References

A. A. Krasnovskii

Dokl. Akad. Nauk SSSR , 1948

A. A. Krasnovskii

Zhur. Fiz. Khim. , 1956

M. F. Shostakovskii

"Prostye Vinilovye Efiry" (Vinyl Ethers) , 1952

10.1063/1.440416

Energy disposal by F atom abstraction reactions: HF vibrational–rotational distributions from F+HBr and HI

Tamagake K., Setser D.W., Sung J.P.

Journal of Chemical Physics , 1980

10.1016/0009-2614(78)85529-8

Hydrogen abstraction by fluorine atoms: F + HX and F + DX (X = I, Br, Cl)

Würzberg E., Grimley A.J., Houston P.L.

Chemical Physics Letters , 1978

10.1021/j100524a019

HF infrared chemiluminescence. Relative rate constants for hydrogen abstraction from hydrocarbons, substituted methanes, and inorganic hydrides

Smith D.J., Setser D.W., Kim K.C., Bogan D.J.

The Journal of Physical Chemistry , 1977

10.1080/00268977100102831

Initial vibrational energy level distributions determined by infra-red chemiluminescence

Jonathan N., Melliar-Smith C.M., Okuda S., Slater D.H., Timlin D.

Molecular Physics , 1971

10.1016/0009-2614(95)00020-5

Infrared chemiluminescence in the systems F + CH4 and F + CH2F2. The effect of secondary reaction

Maneshkarimi M., Heydtmann H.

Chemical Physics Letters , 1995

10.1002/bbpc.19961000720

HF infrared chemiluminescence in the reactions of fluorine atoms with cis-Butene-2, trans-butene-2 and 2,3-d2-butene-2

Dehe K., Heydtmann H.

Berichte der Bunsengesellschaft für physikalische Chemie , 1996

10.

10.1063/1.456527

Infrared chemiluminescence studies of H atom reactions with Cl2O, ClNO, F2O, CF3OF, ClO2, NO2, and ClO

Wategaonkar S.J., Setser D.W.

Journal of Chemical Physics , 1989

11.

10.1063/1.440043

Rate constants and vibrational energy disposal for reaction of H atoms with Br2, SF5Br, PBr3, SF5, and SF4

Malins R.J., Setser D.W.

Journal of Chemical Physics , 1980

12.

V. B. Evstigneev

Dokl. Akad. Nauk SSSR , 1950

13.

10.1021/j150620a004

Studies of hydrogen and oxygen atom reactions by hydroxyl infrared chemiluminescence

Agrawalla B.S., Manocha A.S., Setser D.W.

The Journal of Physical Chemistry , 1981

14.

10.1063/1.473550

Dynamics of OH and OD radical reactions with HI and GeH4 as studied by infrared chemiluminescence of the H2O and HDO products

Butkovskaya N.I., Setser D.W.

Journal of Chemical Physics , 1997

15.

10.1016/B978-0-12-505401-0.50011-0

Energy Flow in Polyatomic Molecules

FLYNN G.W.

1974

16.

10.1063/1.1680002

F + H₂, D₂, HD reactions: Chemical laser determination of the product vibrational state populations and the F + HD intramolecular kinetic isotope effect

Berry M.J.

Journal of Chemical Physics , 1973

17.

V. B. Evstigneev

Dokl. Akad. Nauk SSSR , 1958

18.

10.1063/1.1679506

Infrared chemiluminescence and energy partitioning from reactions of fluorine atoms with hydrides of carbon, silicon, oxygen, sulfur, nitrogen, and phosphorus

Duewer W.H., Setser D.W.

Journal of Chemical Physics , 1973

19.

10.1039/DF9674400183

Energy distribution among reaction products. Part 2.—H + X₂and X + HY

Anlauf K.G., Kuntz P.J., Maylotte D.H., Pacey P.D., Polanyi J.C.

Discussions of the Faraday Society , 1967

20.

10.1021/j100402a039

Infrared chemiluminescence and laser-induced fluorescence studies of energy disposal by reactions of fluorine and chlorine atoms with hydrogen sulfide, deuterium sulfide, hydrogen selenide, water, water-d2, and methanol

Agrawalla B.S., Setser D.W.

The Journal of Physical Chemistry , 1986

21.

10.1021/j100224a017

Infrared chemiluminescence studies of atomic chlorine + hydrogen iodide, hydrogen bromide, deuterium bromide, phosphine, perdeuterophosphine, and germane: vibrational energy disposal and rate constants

Wickramaaratchi M.A., Setser D.W.

The Journal of Physical Chemistry , 1983

22.

10.1016/0009-2614(71)80648-6

Vibrational excitation of CO in the reaction: O + CS → CO + S

Hancock G., Morley C., Smith I.W.

Chemical Physics Letters , 1971

23.

N. V. Vostrilova

Dokl. Akad. Nauk Uzbek. SSR , 1958

24.

10.1063/1.452566

Vibrational distributions and rate constants from reactions of oxygen atoms with HI, GeH4, SiH4, H2Se, and H2S

Agrawalla B.S., Setser D.W.

Journal of Chemical Physics , 1987

25.

G. W. Robinson

J. Chem. Phys. , 1955

26.

10.1063/1.1681094

Einstein coefficients for diatomic molecules

Herbelin J.M., Emanuel G.

Journal of Chemical Physics , 1974

27.

10.1016/0022-2852(74)90125-8

Calculated vibrational transition probabilities of OH(X2Π)

Mies F.H.

Journal of Molecular Spectroscopy , 1974

28.

10.1063/1.1660613

Kinetic Modeling of the High‐Power Carbon Monoxide Laser

Rich J.W.

Journal of Applied Physics , 1971

29.

10.1063/1.1677362

Temperature Dependence of Nearly Resonant Vibration → Vibration Energy Transfer in CO2 Mixtures

Stephenson J.C., Moore C.B.

Journal of Chemical Physics , 1972

30.

V. B. Evstigneev

Dokl. Akad. Nauk SSSR , 1954

31.

A. A. Krasnovskii

Biokhimiya , 1960

32.

10.1070/RC1985v054n03ABEH003019

New Spectroscopic Methods in Gas-Phase Chemical Kinetics

Sarkisov O.M., Cheskis S.G.

Russian Chemical Reviews , 1985

33.

10.1016/0009-2614(74)80396-9

Laser-initiated chemical reactions: total absolute reaction rate constants for Cl+ HBr and Cl + HI

Wodarczyk F.J., Moore C.B.

Chemical Physics Letters , 1974

34.

10.1063/1.431385

Energy dependence and isotope effect for the total reaction rate of Cl+HI and Cl+HBr

Bergmann K., Moore C.B.

Journal of Chemical Physics , 1975

35.

10.1063/1.435409

Temperature dependence of the total reaction rates for Cl+HI and Cl+HBr

Mei C.

Journal of Chemical Physics , 1977

36.

10.1016/0009-2614(80)80109-6

Time-resolved vibrational cemiluminescence: Rate constants for the reaction F + HC1 → HF + Cl and for the relaxtion of HF(v = 3) by HCl, CO2, N2O, CO, N2 and O2

Smith I.W., Wrigley D.J.

Chemical Physics Letters , 1980

37.

10.1016/0301-0104(81)87008-5

Time resolved vibrational chemiluminescence: Rate constants for the reactions F + HBr, HI → HF + Br, I and for the relaxation of HF(υ = 4) and HF(υ = 6) by HBr, HI, CO2, N2O, CO, N2 and O2

Smith I.W., Wrigley D.J.

Chemical Physics , 1981

38.

10.1002/kin.550130402

The infrared chemiluminescent reaction of Cl atoms with H2CO

Fasano D.M., Nogar N.S.

International Journal of Chemical Kinetics , 1981

39.

10.1016/0009-2614(77)85059-8

Time resolved HF vibrational fluorescence from the IR photodissociation of SF6/H2 mixtures

Quick C.R., Wittig C.

Chemical Physics Letters , 1977

40.

10.1016/0009-2614(77)85060-4

Infrared chemiluminescence from hydrogen halides produced in IR photodissociation

Preses J.M., Weston R.E., Flynn G.W.

Chemical Physics Letters , 1977

41.

10.1063/1.437288

Absolute rate coefficients for F + H₂ and F + D₂ at T =295 Ka)

Heidner R.F., Bott J.F., Gardner C.E., Melzer J.E.

Journal of Chemical Physics , 1979

42.

10.1063/1.439818

The temperature dependence of absolute rate constants for the F+H2 and F+D2 reactions

Wurzberg E., Houston P.L.

Journal of Chemical Physics , 1980

43.

10.1063/1.439819

Absolute rate coefficients for F+H2 and F+D2 at T=295–765 K.

Heidner R.F., Bott J.F., Gardner C.E., Melzer J.E.

Journal of Chemical Physics , 1980

44.

10.1063/1.439088

The temperature dependence of hydrogen abstraction reactions: F+HCl, F+HBr, F+DBr, and F+HI

Würzberg E., Houston P.L.

Journal of Chemical Physics , 1980

45.

10.1063/1.441753

IR multiphoton photochemistry of CF3Cl

Horwitz A.B., Preses J.M., Weston R.E., Flynn G.W.

Journal of Chemical Physics , 1981

46.

10.1063/1.436599

Laser‐initiated chemical reactions: Cl+H₂S→HCl+HS: Rate constant, product energy distribution, and direct detection of a chain mechanism

Braithwaite M., Leone S.R.

Journal of Chemical Physics , 1978

47.

10.1063/1.441883

Laser initiated chain reactions: A generalized extension to complex chemical chain systems

Nesbitt D.J., Leone S.R.

Journal of Chemical Physics , 1981

48.

A. A. Krasnovskii

Biofizika , 1958

49.

G. Glacomello

Gazzetta. , 1935

50.

10.1016/0009-2614(82)83438-6

Rate determination for F + CH4 by real-time competitive kinetics

Fasano D.M., Nogar N.S.

Chemical Physics Letters , 1982

51.

10.1063/1.444668

Real‐time kinetic study of the reaction F+NO2

Fasano D.M., Nogar N.S.

Journal of Chemical Physics , 1983

52.

10.1063/1.439284

Laser‐initiated chemical chain reactions

Nesbitt D.J., Leone S.R.

Journal of Chemical Physics , 1980

53.

R. Livingston

J. Phys. Chem. , 1941

54.

G. A. Bogdanovskii

1958

55.

T. Iasui

Bull. Chem. Soc. Japan. , 1935

56.

R. Livingston

"Research in Photosynthesis" , 1957

57.

N. E. Khomutov

1953

58.

10.1002/(SICI)1097-4601(1997)29:1<25::AID-KIN4>3.0.CO;2-N

Rate constants for the reactions of molecular iodine with Cl, SiCl3, and SiH3 at 298 K

Baklanov A.V., Chesnokov E.N., Chichinin A.I.

International Journal of Chemical Kinetics , 1997

59.

10.1016/0301-0104(87)80071-X

Time-resolved LMR study on the reactions of Cl atoms in the ground (2P32) and excited (2P12) spin-orbital states with ClNO

Chasovnikov S.A., Chichinin A.I., Krasnoperov L.N.

Chemical Physics , 1987

60.

10.1039/f29726801281

Atomic resonance fluorescence spectrometry for rate constants of rapid bimolecular reactions. Part 1.—Reactions O + NO₂, Cl + ClNO, Br + ClNO

Clyne M.A., Cruse H.W.

Journal of the Chemical Society Faraday Transactions 2 Molecular and Chemical Physics , 1972

61.

10.1039/f29726801377

Atomic resonance fluorescence spectrometry for the rate constants of rapid bimolecular reactions. Part 2.—Reactions Cl + BrCl, Cl + Br₂, Cl + ICl, Br + IBr, Br + ICl

Clyne M.A., Cruse H.W.

Journal of the Chemical Society Faraday Transactions 2 Molecular and Chemical Physics , 1972

62.

1930

63.

Chem. Zentr. II , 1931

64.

A. A. Krasnovskii

Biofizika , 1959

65.

10.1063/1.462681

Rate constants for CN reactions with hydrocarbons and the product HCN vibrational populations: Examples of heavy–light–heavy abstraction reactions

Copeland L.R., Mohammad F., Zahedi M., Volman D.H., Jackson W.M.

Journal of Chemical Physics , 1992

66.

10.1063/1.451230

The initial product vibrational energy distribution in the reaction between O(1D2) and H2

Aker P.M., Sloan J.J.

Journal of Chemical Physics , 1986

67.

10.1063/1.460653

Photodissociation of ammonia at 193.3 nm: Rovibrational state distribution of the NH2(Ã 2A1) fragment

Woodbridge E.L., Ashfold M.N., Leone S.R.

Journal of Chemical Physics , 1991

68.

10.1063/1.454685

Rotationally resolved product states of polyatomic photofragmentation by time-resolved FTIR emission: HF elimination from 1,1-CH2CClF at 193 mm

Fletcher T.R., Leone S.R.

Journal of Chemical Physics , 1988

69.

10.1063/1.456112

Photodissociation dynamics of C2H2 at 193 nm: Vibrational distributions of the CCH radical and the rotational state distribution of the Ã(010) state by time‐resolved Fourier transform infrared emission

Fletcher T.R., Leone S.R.

Journal of Chemical Physics , 1989

70.

10.1021/j100330a014

Photofragmentation of acetone at 193 nm: rotational- and vibrational-state distributions of the carbon monoxide fragment by time-resolved FTIR emission spectroscopy

Woodbridge E.L., Fletcher T.R., Leone S.R.

The Journal of Physical Chemistry , 1988

71.

10.1063/1.466827

Collisional deactivation of highly vibrationally excited NO2 monitored by time‐resolved Fourier transform infrared emission spectroscopy

Hartland G.V., Qin D., Dai H.

Journal of Chemical Physics , 1994

72.

10.1021/jp952606t

Infrared Emission from the Reaction of CHF (X̃A‘) with NO

Brownsword R.A., Hancock G., Oum K.W.

The Journal of Physical Chemistry , 1996

73.

10.1063/1.1145560

Pulse-to-pulse normalization of time-resolved Fourier transform emission experiments in the near infrared

Lindner J., Lundberg J.K., Williams R.M., Leone S.R.

Review of Scientific Instruments , 1995

74.

10.1016/0009-2614(93)89077-U

The vibrational quenching of NO (v = 1 – 11) by N2O studied by time-resolved Fourier transform infrared emission spectroscopy☆

Wang X., Li H., Ju Q., Zhu Q., Kong F.

Chemical Physics Letters , 1993

75.

10.1016/0301-0104(85)85040-0

Infrared luminescence of excited SiH3Cl molecules generated by SiH4 chlorination

Chesnokov E.N., Panfilov V.N.

Chemical Physics , 1985

76.

10.1021/j100222a027

Laser-initiated chlorine/hydrocarbon chain reactions: time-resolved infrared emission spectra of product vibrational excitation

Nesbitt D.J., Leone S.R.

The Journal of Physical Chemistry , 1982