Synchrotron-Based High Resolution Spectroscopy of N-Bearing PAHs Sébastien Gruet, Olivier Pirali, Manuel Goubet and P. Bréchignac ISMS 2014 16/06/2014.

Slides:



Advertisements
Similar presentations
Rotationally-resolved infrared spectroscopy of the polycyclic aromatic hydrocarbon pyrene (C 16 H 10 ) using a quantum cascade laser- based cavity ringdown.
Advertisements

HIGH-RESOLUTION ANALYSIS OF VARIOUS PROPANE BANDS: MODELING OF TITAN'S INFRARED SPECTRUM J.-M. Flaud.
The Water Molecule: Line Position and Line Intensity Analyses up to the Second Triad L. H. Coudert, a G. Wagner, b M. Birk, b and J.-M. Flaud a a Laboratoire.
High-Lying Rotational Levels of Water obtained by FIR Emission Spectroscopy L. H. Coudert, a M.-A. Martin, b O. Pirali, b D. Balcon, b and M. Vervloet.
9th Biennal HITRAN Conference Harvard-Smithsonian Center for Astrophysics June 26–28, 2006 GLOBAL FREQUENCY AND INFRARED INTENSITY ANALYSIS OF 12 CH 4.
Submillimeter-wave Spectroscopy of 13 C 1 -Methyl formate [H 13 COOCH 3 ] in the Ground State Atsuko Maeda, Ivan Medvedev, Eric Herbst, Frank C. De Lucia,
Submillimeter-wave Spectroscopy of [HCOOCH 3 ] and [H 13 COOCH 3 ] in the Torsional Excited States Atsuko Maeda, Frank C. De Lucia, and Eric Herbst Department.
The torsional spectrum of disilane N. Moazzen-Ahmadi, University of Calgary V.-M. Horneman, University of Oulu, Finland.
Rovibronic Analysis of the State of the NO 3 Radical Henry Tran, Terrance J. Codd, Dmitry Melnik, Mourad Roudjane, and Terry A. Miller Laser Spectroscopy.
An Analysis of the 3 band of HTO aided by the Partridge and Schwenke PES Modou Tine and Laurent H. Coudert Laboratoire Inter-Universitaire des Systèmes.
First high resolution analysis of the 5 3 band of nitrogen dioxide (NO 2 ) near 1.3 µm Didier Mondelain 1, Agnès Perrin 2, Samir Kassi 1 & Alain Campargue.
Columbus 2005, 20/6/ /6/05 ANALYSIS OF THE 3 / 7 / 9 BENDING TRIAD OF THE QUASI-SPHERICAL TOP MOLECULE SO 2 F 2 M. Rotger, V. Boudon, M. Lo ë te,
11 The THz spectrum of GlycolAldehyde M. Goubet, T.R. Huet, I. Haykal, L. Margulès PhLAM, CNRS – Université de Lille 1 O. Pirali, P. Roy AILES beamline,
65th OSU International Symposium on Molecular Spectroscopy RH14.
High Resolution Measurements and Electronic Structure Calculations of a Diazanaphthalene: [1,6]-naphthyridine. Sébastien Gruet, Manuel Goubet, Olivier.
High Precision Mid-Infrared Spectroscopy of 12 C 16 O 2 : Progress Report Speaker: Wei-Jo Ting Department of Physics National Tsing Hua University
Columbus, June , 2005 Stark Effect in X 2 Y 4 Molecules: Application to Ethylene M. ROTGER, W. RABALLAND, V. BOUDON, and M. LOËTE Laboratoire de.
O. Pirali, S. Gruet, M. Vervloet AILES beamline, synchrotron SOLEIL
Millimeter- Wave Spectroscopy of Hydrazoic acid (HN 3 ) Brent K. Amberger, Brian J. Esselman, R. Claude Woods, Robert J. McMahon University of Wisconsin.
Arnaud Cuisset, G. Mouret, R. Bocquet, F. Hindle Laboratoire de Physico-Chimie de l’Atmosphere, Université du Littoral Côte d’Opale, Dunkerque, France.
1 Fourier transform microwave and infrared study of silacyclobutane Cody van Dijk, Samantha van Nest, Ziqiu Chen and Jennifer van Wijngaarden Department.
“Global Fit” of the high resolution infrared data of D 2 S and HDS molecules O. N. Ulenikov, E. S. Bekhtereva Physical Chemistry, ETH-Zurich, CH-8093 Zurich,
Electronic Spectroscopy of DHPH Revisited: Potential Energy Surfaces along Different Low Frequency Coordinates Leonardo Alvarez-Valtierra and David W.
Friday, June 21, th OSU SYMPOSIUM MOLECULAR SPECTROSCOPY FB06: Cuisset & al Gas phase rovibrational spectroscopy of DMSO, Part II: « Towards a THz.
The Pure Rotational Spectrum of Pivaloyl Chloride, (CH 3 ) 3 CCOCl, between 800 and MHz. Garry S. Grubbs II, Christopher T. Dewberry, Kerry C. Etchison,
61th Ohio State University Symposium on Molecular Spectroscopy June 19–23, 2006 GLOBAL FREQUENCY AND INFRARED INTENSITY ANALYSIS OF 12 CH 4 LINES IN THE.
66th OSU International symposium on molecular spectroscopy
Precision Measurement of CO 2 Hotband Transition at 4.3  m Using a Hot Cell PEI-LING LUO, JYUN-YU TIAN, HSHAN-CHEN CHEN, Institute of Photonics Technologies,
GLOBAL FIT ANALYSIS OF THE FOUR LOWEST VIBRATIONAL STATES OF ETHANE: THE 12  9 BAND L. Borvayeh and N. Moazzen-Ahmadi Department of Physics and Astronomy.
DIMETHYL -ETHER THREE DIMENTIONAL SPECTRA M. VILLA U.A.M.-I. (México) and M. L. SENENT C.S.I.C. (Spain)
64th Ohio State University Symposium on Molecular Spectroscopy June 22–26, 2009 THE HIGH RESOLUTION FAR- INFRARED SPECTRUM OF METHANE AT THE SOLEIL SYNCHROTRON.
Equilibrium Molecular Structure and Spectroscopic Parameters of Methyl Carbamate J. Demaison, A. G. Császár, V. Szalay, I. Kleiner, H. Møllendal.
Fourier transform microwave spectra of CO–dimethyl sulfide and CO–ethylene sulfide Akinori Sato, Yoshiyuki Kawashima and Eizi Hirota * The Graduate University.
Grupo de Espectroscopía Molecular, Lab. De Espectroscopia y Bioespectroscopia Edificio Quifima, Unidad Asociada CSIC, Universidad de Valladolid Valladolid,
HIGH RESOLUTION SPECTROSCOPY OF THE TWO LOWEST VIBRATIONAL STATES OF QUINOLINE C 9 H 7 N O. PIRALI, Z. KISIEL, M. GOUBET, S. GRUET, M.-A. MARTIN-DRUMEL,
SeyedAbdolreza Sadjadi December 17, 2015 Laboratory for Space Research (LSR) The University of Hong Kong
1 The rotational spectrum of 13 CH 3 NH 2 up to 1 THz Roman A. Motiyenko, Laurent Margulès PhLAM, Université Lille 1 Vadim Ilyushin Institute of Radio.
70th ISMS Vibration-Rotation Analysis of the 13 CO 2 Asymmetric Stretch Fundamental Band in Ambient Air for the Physical Chemistry Teaching Laboratory.
Copyright All rights reserved. June 25, 2015ISMS, 2015
FIRST HIGH RESOLUTION INFRARED SPECTROSCOPY OF GAS PHASE CYCLOPENTYL RADICAL: STRUCTURAL AND DYNAMICAL INSIGHTS FROM THE LONE CH STRETCH Melanie A. Roberts,
ABSOLUTE 17 O NMR SCALE: a JOINT ROTATIONAL SPECTROSCOPY and QUANTUM-CHEMISTRY STUDY Cristina PUZZARINI and Gabriele CAZZOLI Dipartimento di Chimica “G.
Molecular Spectroscopy Symposium June 2010 Can the Inversion-Vibration-Rotation Problem in the 4 and 2 2 States of NH 3 be solved to Experimental.
1 The r 0 Structural Parameters of Equatorial Bromocyclobutane, Conformational Stability from Temperature Dependent Infrared Spectra of Xenon Solutions,
O. PIRALI, J. OOMENS, N. POLFER FOM Rijnhuizen, 3439MN Nieuwegein, The Netherlands Y. UENO, R. MABOUDIAN Department of Chemical Engineering, U.C. Berkeley,
THz Spectroscopy of 1d-ethane: Assignment of v 18 ADAM M. DALY, BRIAN J. DROUIN, LINDA BROWN Jet Propulsion Laboratory, California Institute of Technology,
CALIFORNIA INSTITUTE OF TECHNOLOGY PURE ROTATIONAL SPECTROSCOPY OF PANHs: 1,10-PHENANTHROLINE Brett A. McGuire, Ian A. Finneran, P. Brandon Carroll, &
FAR-IR ACTION SPECTROSCOPY OF AMINOPHENOL AND ETHYLVANILLIN: EXPERIMENT AND THEORY Vasyl Yatsyna, Daniël Bakker*, Raimund Feifel, Vitali Zhaunerchyk, Anouk.
Rotational transitions in the and vibrational states of cis-HCOOH 7 9 Oleg I. Baskakov Department of Quantum Radiophysics, Kharkov National University.
Jun 18th rd International Symposium on Molecular Spectroscopy Microwave spectroscopy o f trans-ethyl methyl ether in the torsionally excited state.
Analysis of the rotation-torsion spectrum of CH 2 DOH within the e 0, e 1, and o 1 torsional levels L. H. Coudert, a John C. Pearson, b Shanshan Yu, b.
Isabelle Kleinera and Jon T. Hougenb
Gas phase rovibrational spectroscopy of DMSO, Part I: « When a synchrotron source reveals an unusual rotational behaviour » Arnaud Cuisset, Dmitrii Sadovskii.
High resolution far-IR spectroscopy of HFC-134a at cold temperatures
HIGH RESOLUTION SPECTROSCOPY OF THE CARBON CAGE ADAMANTANE C10H16
Doppler-free two-photon absorption spectroscopy of vibronic excited states of naphthalene assisted by an optical frequency comb UNIV. of Electro-Communications.
V. Ilyushin1, I. Armieieva1, O. Zakharenko2, H. S. P. Müller2, F
Tokyo Univ. Science Mitsunori Araki, Yuki Matsushita, Koichi Tsukiyama
Single Vibronic Level (SVL) emission spectroscopy of CHBr: Vibrational structure of the X1A and a3A  states.
THE MILLIMETER-WAVE SPECTRUM OF METHACROLEIN
HIGH RESOLUTION INFRARED SPECTRA OF TRIACETYLENE*
Far Infrared Spectroscopy of Anti-Vinyl Alcohol
Lowest vibrational states of acrylonitrile
Rotational spectroscopy as a tool to investigate interactions between vibrational polyads in symmetric top molecules: low-lying states v8  2 of methyl.
High resolution direct frequency comb spectroscopy of vinyl bromide and nitromethane in the CH stretch region Bryan Changala1, Ben Spaun1, David Patterson2,
Analysis of torsional splitting in the ν8 band of propane near 870
A. M. Daly, B. J. Drouin, J. C. Pearson, K. Sung, L. R. Brown
d'Opale, F Dunkerque, France,
F H F O Semiexperimental structure of the non rigid BF2OH molecule (difluoroboric acid) by combining high resolution infrared spectroscopy and ab initio.
COMPREHENSIVE ANALYSIS OF INTERSTELLAR
Presentation transcript:

Synchrotron-Based High Resolution Spectroscopy of N-Bearing PAHs Sébastien Gruet, Olivier Pirali, Manuel Goubet and P. Bréchignac ISMS /06/2014

Hypothesis : A. Leger, J. L. Puget, A&A 1984, 137, L5. Typical vibrational modes of aromatic compounds: (in µm) at : 3.3, 6.2, 7.7, 8.6, 11.3, 20.8, 27 and 56. (in cm -1 ) at ≈: 3030, 1612, 1298, 1162, 884, 480, 370, and 178. N-Bearing PAHs Peeters et al, 2002, A&A,390, 1089 Rotationally resolved IR data of PAHs in the literature Relatively recent and still scarce One of the first publication: S. Albert et al. Faraday Discuss. 150, (2011) TA11 – Roger Adams Lab 116 – 11 h 35 to 11 h 50 AM Quinoline/Isoquinoline: Z. Kisiel et al. J. Mol. Spectrosc. 217, 115 (2003). Quinoxaline/Quinazoline: D. McNaughton, J. Chem. Phys. 124, (2011) 2

3 Experimental device Room temperature long pathlength cell (150m) Bruker IFS 125 Resolution: cm -1 ≈ 30MHz Bruker IFS 125 Resolution: cm -1 ≈ 30MHz

4 Resolution: 0.5cm

5 Resolution: cm -1 Butterfly Mode Drumhead Mode C-H oop Mode

6 Effective Hamiltonian for asymmetric top molecules : Study of the out of plane vibrational modes : Selection rules for c-type transitions : Butterfly mode at ≈ 170 cm -1 c a b c

7

Molecules IsoquinolineQuinolineQuinoxalineQuinazoline[1,5]-naphthyridine Parametersν 41 ν 37 ν 45 ν 41 ν 28 ν 27 ν 38 ν 22 ν 18 Band Center cm -1 /MHz (14)/ (41) (20)/ (60) (17)/ (45) (12)/ (37) (23)/ (71) (7)/ (21) (17)/ (45) (12)/ (37) (14)/ (41) A /MHz (57) (99) (10) (49) (10) (17) (69) (22) (22) B /MHz (25) (90) (10) (21) (21) (11) (61) (52) (47) C /MHz (36) (13) (11) (31) (32) (16) (85) (52) (40) Δ J /kHz (57) (39) (70) (78) (53) (11) (19) (56) (60) Δ K /kHz (33) (44) (12) (32) (89) (67) (62) (49) Δ JK /kHz (26) (19) (78) (28) (38) (58) (70) (37) (28) δ J /kHz * (62) * * * δ K /kHz * (76) * * * N of lines IR RMS cm cm cm cm cm cm cm cm cm -1 J” min /J” max 14/9917/8715/9415/9912/9915/8317/999/9911/91 Ka” min /Ka” max 14/6417/4314/5014/6012/4814/4117/529/ rovibrational bands analyzed for these 5 molecules. Analysis of 3 other bands in progress. Determination of the GS constants of the [1,5]-napthyridine.

9 Anharmonic DFT calculation at the B97-1/cc-pVTZ//ANO-DZP level Accurate calculated rotational parameters More details about calculations: M. Goubet, O. Pirali, J. Chem Phys. 140, (2014) Useful tool to begin the GSCD analysis by LWW diagram Quinoxaline ModeGS 27 ParametersCalculatedExperimentalDeviationCalculatedExperimentalDeviation A /MHz B /MHz C /MHz Corrected Calculated Values ExperimentalDeviation the B97-1/cc-pVTZ//ANO-DZP level Anharmonic DFT calculation at the B97-1/cc-pVTZ//ANO-DZP level

MoleculesQuinazolineQuinoline[1,5]-naphthyridine ModesGSν 38 GSν 45 ν 41 GSν 22 ν 18 Experimental MoleculesQuinazolineQuinoline[1,5]-naphthyridine ModesGSν 38 GSν 45 ν 41 GSν 22 ν 18 Experimental MoleculesQuinazolineQuinoline[1,5]-naphthyridine ModesGSν 38 GSν 45 ν 41 GSν 22 ν 18 Calculated Experimental MoleculesQuinazolineQuinoline[1,5]-naphthyridine ModesGSν 38 GSν 45 ν 41 GSν 22 ν 18 Calculated Experimental Deviation Check the reliability of our fitted rotational constants Contribution of the out of plane low frequency modes (GS) Correlation with the amplitude of the deformation motions (ES)

11

Pure rotational transitions in the ES.  Collaboration: LPCA Dunkerque (Fr) & PhLAM Laboratory (Fr) & IP PAS (Pl) 12 Important database of rotational information in the IR  Simulation at different resolution and at low temperature Study of larger molecules : Jet-AILES Experiment (IPR, LADIR, PhLAM, SOLEIL) FA09 – Roger Adams Lab 116 – 11 h 01 to 11 h 16 AM