Extreme high-frequency-peaked BL Lac objects Virtual Observatory Resource

Authors
  1. Acciari V.A.
  2. Ansoldi S.
  3. Antonelli L.A.
  4. Arbet Engels A.
  5. Asano K.,Baack D.
  6. Babic A.
  7. Banerjee B.
  8. Barres de Almeida U.
  9. Barrio J.A.,Becerra Gonzalez J.
  10. Bednarek W.
  11. Bellizzi L.
  12. Bernardini E.
  13. Berti A.,Besenrieder J.
  14. Bhattacharyya W.
  15. Bigongiari C.
  16. Biland A.
  17. Blanch O.,Bonnoli G.
  18. Bosnjak Z.
  19. Busetto G.
  20. Carosi R.
  21. Ceribella G.
  22. Cerruti M.,Chai Y.
  23. Chilingaryan A.
  24. Cikota S.
  25. Colak S.M.
  26. Colin U.
  27. Colombo E.,Contreras J.L.
  28. Cortina J.
  29. Covino S.
  30. D'Elia V.
  31. Da Vela P.
  32. Dazzi F.,De Angelis A.
  33. De Lotto B.
  34. Delfino M.
  35. Delgado J.
  36. Depaoli D.,Di Pierro F.
  37. Di Venere L.
  38. Do Souto Espineira E.
  39. Dominis Prester D.,Donini A.
  40. Dorner D.
  41. Doro M.
  42. Elsaesser D.
  43. Fallah Ramazani V.,Fattorini A.
  44. Ferrara G.
  45. Fidalgo D.
  46. Foffano L.
  47. Fonseca M.V.
  48. Font L.,Fruck C.
  49. Fukami S.
  50. Garcia Lopez R.J.
  51. Garczarczyk M.
  52. Gasparyan S.,Gaug M.
  53. Giglietto N.
  54. Giordano F.
  55. Godinovic N.
  56. Green D.
  57. Guberman D.,Hadasch D.
  58. Hahn A.
  59. Herrera J.
  60. Hoang J.
  61. Hrupec D.
  62. Hutten M.
  63. Inada T.,Inoue S.
  64. Ishio K.
  65. Iwamura Y.
  66. Jouvin L.
  67. Kerszberg D.
  68. Kubo H.,Kushida J.
  69. Lamastra A.
  70. Lelas D.
  71. Leone F.
  72. Lindfors E.
  73. Lombardi S.,Longo F.
  74. Lopez M.
  75. Lopez-Coto R.
  76. Lopez-Oramas A.
  77. Loporchio S.,Machado de Oliveira Fraga B.
  78. Maggio C.
  79. Majumdar P.
  80. Makariev M.,Mallamaci M.
  81. Maneva G.
  82. Manganaro M.
  83. Mannheim K.
  84. Maraschi L.,Mariotti M.
  85. Martinez M.
  86. Mazin D.
  87. Micanovic S.
  88. Miceli D.
  89. Minev M.,Miranda J.M.
  90. Mirzoyan R.
  91. Molina E.
  92. Moralejo A.
  93. Morcuende D.
  94. Moreno V.,Moretti E.
  95. Munar-Adrover P.
  96. Neustroev V.
  97. Nigro C.
  98. Nilsson K.
  99. Ninci D.,Nishijima K.
  100. Noda K.
  101. Nogues L.
  102. Nozaki S.
  103. Paiano S.
  104. Palatiello M.,Paneque D.
  105. Paoletti R.
  106. Paredes J.M.
  107. Penil P.
  108. Peresano M.
  109. Persic M.,Prada Moroni P.G.
  110. Prandini E.
  111. Puljak I.
  112. Rhode W.
  113. Ribo M.
  114. Rico J.,Righi C.
  115. Rugliancich A.
  116. Saha L.
  117. Sahakyan N.
  118. Saito T.
  119. Sakurai S.,Satalecka K.
  120. Schmidt K.
  121. Schweizer T.
  122. Sitarek J.
  123. Snidaric I.,Sobczynska D.
  124. Somero A.
  125. Stamerra A.
  126. Strom D.
  127. Strzys M.
  128. Suda Y.,Suric T.
  129. Takahashi M.
  130. Tavecchio F.
  131. Temnikov P.
  132. Terzic T.
  133. Teshima M.,Torres-Alba N.
  134. Tosti L.
  135. Vagelli V.
  136. van Scherpenberg J.
  137. Vanzo G.,Vazquez Acosta M.
  138. Vigorito C.F.
  139. Vitale V.
  140. Vovk I.
  141. Will M.
  142. Zaric D.,Arcaro C.
  143. Carosi A.
  144. D'Ammando F.
  145. Tombesi F.
  146. Lohfink A.
  147. Published by
    CDS
Abstract

Extreme high-frequency-peaked BL Lac objects (EHBLs) are blazars that exhibit extremely energetic synchrotron emission. They also feature nonthermal gamma-ray emission whose peak lies in the very high-energy (VHE, E>100GeV) range, and in some sources exceeds 1TeV: this is the case for hard-TeV EHBLs such as 1ES 0229+200. With the aim of increasing the EHBL population, 10 targets were observed with the MAGIC telescopes from 2010 to 2017, for a total of 265hr of good-quality data. The data were complemented by coordinated Swift observations. The X-ray data analysis confirms that all but two sources are EHBLs. The sources show only a modest variability and a harder-when-brighter behavior, typical for this class of objects. At VHE gamma-rays, three new sources were detected and a hint of a signal was found for another new source. In each case, the intrinsic spectrum is compatible with the hypothesis of a hard-TeV nature of these EHBLs. The broadband spectral energy distributions (SEDs) of all sources are built and modeled in the framework of a single-zone, purely leptonic model. The VHE gamma-ray-detected sources were also interpreted with a spine-layer model and a proton synchrotron model. The three models provide a good description of the SEDs. However, the resulting parameters differ substantially in the three scenarios, in particular the magnetization parameter. This work presents the first mini catalog of VHE gamma-ray and multiwavelength observations of EHBLs.

Keywords
  1. BL Lacertae objects
  2. Gamma-ray astronomy
  3. X-ray sources
  4. Redshifted
Bibliographic source Bibcode
2020ApJS..247...16A
See also HTML
https://cdsarc.cds.unistra.fr/viz-bin/cat/J/ApJS/247/16
IVOA Identifier IVOID
ivo://CDS.VizieR/J/ApJS/247/16
Document Object Identifer DOI
doi:10.26093/cds/vizier.22470016

Access

Web browser access HTML
http://vizier.cds.unistra.fr/viz-bin/VizieR-2?-source=J/ApJS/247/16
https://vizier.iucaa.in/viz-bin/VizieR-2?-source=J/ApJS/247/16
http://vizieridia.saao.ac.za/viz-bin/VizieR-2?-source=J/ApJS/247/16
IVOA Table Access TAP
http://tapvizier.cds.unistra.fr/TAPVizieR/tap
Run SQL-like queries with TAP-enabled clients (e.g., TOPCAT).
IVOA Cone Search SCS
For use with a cone search client (e.g., TOPCAT).
http://vizier.cds.unistra.fr/viz-bin/conesearch/J/ApJS/247/16/magic?
https://vizier.iucaa.in/viz-bin/conesearch/J/ApJS/247/16/magic?
http://vizieridia.saao.ac.za/viz-bin/conesearch/J/ApJS/247/16/magic?

History

2020-06-23T14:29:20Z
Resource record created
2020-06-23T14:29:20Z
Created
2020-10-02T11:12:40Z
Updated

Contact

Name
CDS support team
Postal Address
CDS, Observatoire de Strasbourg, 11 rue de l'Universite, F-67000 Strasbourg, France
E-Mail
cds-question@unistra.fr