%0 Journal Article
%A Abramowski, A.
%A Aharonian, F.
%A Ait Benkhali, F.
%A Akhperjanian, A. G.
%A Angüner, E. O.
%A Backes, M.
%A Balenderan, S.
%A Balzer, A.
%A Barnacka, A.
%A Becherini, Y.
%A Becker Tjus, J.
%A Berge, D.
%A Bernhard, S.
%A Bernlöhr, K.
%A Birsin, E.
%A Biteau, J.
%A Böttcher, M.
%A Boisson, C.
%A Bolmont, J.
%A Bordas, P.
%A Bregeon, J.
%A Brun, F.
%A Brun, P.
%A Bryan, M.
%A Bulik, T.
%A Carrigan, S.
%A Casanova, S.
%A Chadwick, P. M.
%A Chakraborty, N.
%A Chalme-Calvet, R.
%A Chaves, R. C. G.
%A Chrétien, M.
%A Colafrancesco, S.
%A Cologna, G.
%A Conrad, J.
%A Couturier, C.
%A Cui, Y.
%A Davids, I. D.
%A Degrange, B.
%A Deil, C.
%A deWilt, P.
%A Djannati-Ataï, A.
%A Domainko, W.
%A Donath, A.
%A Drury, L. O’C.
%A Dubus, G.
%A Dutson, K.
%A Dyks, J.
%A Dyrda, M.
%A Edwards, T.
%A Egberts, K.
%A Eger, P.
%A Espigat, P.
%A Farnier, C.
%A Fegan, S.
%A Feinstein, F.
%A Fernandes, M. V.
%A Fernandez, D.
%A Fiasson, A.
%A Fontaine, G.
%A Förster, A.
%A Füßling, M.
%A Gabici, S.
%A Gajdus, M.
%A Gallant, Y. A.
%A Garrigoux, T.
%A Giavitto, G.
%A Giebels, B.
%A Glicenstein, J. F.
%A Gottschall, D.
%A Grondin, M.-H.
%A Grudzińska, M.
%A Hadasch, D.
%A Häffner, S.
%A Hahn, J.
%A Harris, J.
%A Heinzelmann, G.
%A Henri, G.
%A Hermann, G.
%A Hervet, O.
%A Hillert, A.
%A Hinton, J. A.
%A Hofmann, W.
%A Hofverberg, P.
%A Holler, M.
%A Horns, D.
%A Ivascenko, A.
%A Jacholkowska, A.
%A Jahn, C.
%A Jamrozy, M.
%A Janiak, M.
%A Jankowsky, F.
%A Jung-Richardt, I.
%A Kastendieck, M. A.
%A Katarzyński, K.
%A Katz, U.
%A Kaufmann, S.
%A Khélifi, B.
%A Kieffer, M.
%A Klepser, S.
%A Klochkov, D.
%A Kluźniak, W.
%A Kolitzus, D.
%A Komin, Nu.
%A Kosack, K.
%A Krakau, S.
%A Krayzel, F.
%A Krüger, P. P.
%A Laffon, H.
%A Lamanna, G.
%A Lefaucheur, J.
%A Lefranc, V.
%A Lemière, A.
%A Lemoine-Goumard, M.
%A Lenain, J.-P.
%A Lohse, T.
%A Lopatin, A.
%A Lu, C.-C.
%A Marandon, V.
%A Marcowith, A.
%A Marx, R.
%A Maurin, G.
%A Maxted, N.
%A Mayer, M.
%A McComb, T. J. L.
%A Méhault, J.
%A Meintjes, P. J.
%A Menzler, U.
%A Meyer, M.
%A Mitchell, A. M. W.
%A Moderski, R.
%A Mohamed, M.
%A Morå, K.
%A Moulin, E.
%A Murach, T.
%A de Naurois, M.
%A Niemiec, J.
%A Nolan, S. J.
%A Oakes, L.
%A Odaka, H.
%A Ohm, S.
%A Opitz, B.
%A Ostrowski, M.
%A Oya, I.
%A Panter, M.
%A Parsons, R. D.
%A Paz Arribas, M.
%A Pekeur, N. W.
%A Pelletier, G.
%A Petrucci, P.-O.
%A Peyaud, B.
%A Pita, S.
%A Poon, H.
%A Pühlhofer, G.
%A Punch, M.
%A Quirrenbach, A.
%A Raab, S.
%A Reichardt, I.
%A Reimer, A.
%A Reimer, O.
%A Renaud, M.
%A de los Reyes, R.
%A Rieger, F.
%A Romoli, C.
%A Rosier-Lees, S.
%A Rowell, G.
%A Rudak, B.
%A Rulten, C. B.
%A Sahakian, V.
%A Salek, D.
%A Sanchez, D. A.
%A Santangelo, A.
%A Schlickeiser, R.
%A Schüssler, F.
%A Schulz, A.
%A Schwanke, U.
%A Schwarzburg, S.
%A Schwemmer, S.
%A Sol, H.
%A Spanier, F.
%A Spengler, G.
%A Spies, F.
%A Stawarz, Ł.
%A Steenkamp, R.
%A Stegmann, C.
%A Stinzing, F.
%A Stycz, K.
%A Sushch, I.
%A Tavernet, J.-P.
%A Tavernier, T.
%A Taylor, A. M.
%A Terrier, R.
%A Tluczykont, M.
%A Trichard, C.
%A Valerius, K.
%A van Eldik, C.
%A van Soelen, B.
%A Vasileiadis, G.
%A Veh, J.
%A Venter, C.
%A Viana, A.
%A Vincent, P.
%A Vink, J.
%A Völk, H. J.
%A Volpe, F.
%A Vorster, M.
%A Vuillaume, T.
%A Wagner, S. J.
%A Wagner, P.
%A Wagner, R. M.
%A Ward, M.
%A Weidinger, M.
%A Weitzel, Q.
%A White, R.
%A Wierzcholska, A.
%A Willmann, P.
%A Wörnlein, A.
%A Wouters, D.
%A Yang, R.
%A Zabalza, V.
%A Zaborov, D.
%A Zacharias, M.
%A Zdziarski, A. A.
%A Zech, A.
%A Zechlin, H.-S.
%T H.E.S.S. reveals a lack of TeV emission from the supernova remnant Puppis A
%J Astronomy and astrophysics
%V 575
%@ 1432-0746
%C Les Ulis
%I EDP Sciences
%M PUBDB-2016-00373
%P A81 -
%D 2015
%Z (c) ESO
%X Context. Puppis A is an interesting  ∼ 4 kyr-old supernova remnant (SNR) that shows strong evidence of interaction between the forward shock and a molecular cloud. It has been studied in detail from radio frequencies to high-energy (HE, 0.1−100 GeV) γ-rays. An analysis of the Fermi-LAT data has shown extended HE γ-ray emission with a 0.2−100 GeV spectrum exhibiting no significant deviation from a power law, unlike most of the GeV-emitting SNRs known to be interacting with molecular clouds. This makes it a promising target for imaging atmospheric Cherenkov telescopes (IACTs) to probe the γ-ray emission above 100 GeV.Aims. Very-high-energy (VHE, E  ≥  0.1 TeV) γ-ray emission from Puppis A has been, for the first time, searched for with the High Energy Stereoscopic System (H.E.S.S.).Methods. Stereoscopic imaging of Cherenkov radiation from extensive air showers is used to reconstruct the direction and energy of the incident γ-rays in order to produce sky images and source spectra. The profile likelihood method is applied to find constraints on the existence of a potential break or cutoff in the photon spectrum.Results. The analysis of the H.E.S.S. data does not reveal any significant emission towards Puppis A. The derived upper limits on the differential photon flux imply that its broadband γ-ray spectrum must exhibit a spectral break or cutoff. By combining Fermi-LAT and H.E.S.S. measurements, the 99
%F PUB:(DE-HGF)16
%9 Journal Article
%U <Go to ISI:>//WOS:000350249100081
%R 10.1051/0004-6361/201424805
%U https://bib-pubdb1.desy.de/record/293217