J/A+A/692/A140      Broadband multi-wavelength properties of M87 (Algaba+, 2024)

Broadband multi-wavelength properties of M87 during the 2018 EHT campaign including a very high energy flaring episode. Algaba J.C., Balokovic A., Chandra S., Cheong W.-Y., Cui Y.-Z., D'Ammando F., Falcone A.D., Ford N.M., Giroletti M., Goddi C., Gurwell M.A., Hada K., Haggard D., Jorstad S., Kaur A., Kawashima T., Kerby S., Kim J.-Y., Kino M., Kravchenko E.V., Lee S.-S., Lu R.-S., Markoff S., Michail J., Neilsen J., Nowak M.A., Principe G., Ramakrishnan V., Ripperda B., Sasada M., Savchenko S., Sheridan C., (The Event Horizon Telescope - Multi-wavelength science working group), Akiyama K., Alberdi A., Alef W., Algaba J.C., Anantua R., Asada K., Azulay R., Bach U., Baczko A.-K., Ball D., Bandyopadhyay B., Barrett J., Bauboeck M., Benson B.A., Bintley D., Blackburn L., Blundell R., Bouman K.L., Bower G.C., Boyce H., Bremer M., Brissenden R., Britzen S., Broderick A.E., Broguiere D., Bronzwaer T., Bustamante S., Carlstrom J.E., Chael A., Chan C.-K., Chang D.O., Chatterjee K., Chatterjee S., Chen M.-T., Chen Y., Cheng X., Cho I., Christian P., Conroy N.S., Conway J.E., Crawford T.M., Crew G.B., Cruz-Osorio A., Cui Y., Dahale R., Davelaar J., De Laurentis M., Deane R., Dempsey J., Desvignes G., Dexter J., Dhruv V., Dihingia I.K., Doeleman S., Dzib S.A., Eatough R.P., Emami R., Falcke H., Farah J., Fish V.L., Fomalont E., Ford H.A., Foschi M., Fraga-Encinas R., Freeman W.T., Friberg P., Fromm C.M., Fuentes A., Galison P., Gammie C.F., Garcia R., Gentaz O., Georgiev B., Goddi C., Gold R., Gomez-Ruiz A.I., Gomez J.L., Gu M., Gurwell M., Hada K., Haggard D., Hesper R., Heumann D., Ho L.C., Ho P., Honma M., Huang L.C.-W., Huang L., Hughes D.H., Ikeda S., Impellizzeri C.M.V., Inoue M., Issaoun S., James D.J., Jannuzi B.T., Janssen M., Jeter B., Jiang W., Jimenez-Rosales A., Johnson M.D., Jorstad S., Jones A.C., Joshi A.V., Jung T., Karuppusamy R., Kawashima T., Keating G.K., Kettenis M., Kim D.-J., Kim J.-Y., Kim J., Kim J., Kino M., Koay J.Y., Kocherlakota P., Kofuji Y., Koch P.M., Koyama S., Kramer C., Kramer J.A., Kramer M., Krichbaum T.P., Kuo C.-Y., La Bella N., Lee S.-S., Levis A., Li Z., Lico R., Lindahl G., Lindqvist M., Lisakov M., Liu J., Liu K., Liuzzo E., Lo W.-P., Lobanov A.P., Loinard L., Lonsdale C.J., Lowitz A.E., Lu R.-S., MacDonald N.R., Mao J., Marchili N., Markoff S., Marrone D.P., Marscher A.P., Marti-Vidal I., Matsushita S., Matthews L.D., Medeiros L., Menten K.M., Mizuno I., Mizuno Y., Montgomery J., Moran J.M., Moriyama K., Moscibrodzka M., Mulaudzi W., Mueller C., Mueller H., Mus A., Musoke G., Myserlis I., Nagai H., Nagar N.M., Nair D.G., Nakamura M., Narayanan G., Natarajan I., Nathanail A., Navarro Fuentes S., Neilsen J., Ni C., Nowak M.A., Oh J., Okino H., Olivares H., Oyama T., Oezel F., Palumbo D.C.M., Filippos Paraschos G., Park J., Parsons H., Patel N., Pen U.-L., Pesce D.W., Pietu V., PopStefanija A., Porth O., Prather B., Psaltis D., Pu H.-Y., Ramakrishnan V., Rao R., Rawlings M.G., Raymond A.W., Rezzolla L., Ricarte A., Ripperda B., Roelofs F., Romero-Canizales C., Ros E., Roshanineshat A., Rottmann H., Roy A.L., Ruiz I., Ruszczyk C., Rygl K.L.J., Sanchez S., Sanchez-Argueelles D., Sanchez-Portal M., Sasada M., Satapathy K., Savolainen T., Schloerb F.P., Schonfeld J., Schuster K.-F., Shao L., Shen Z., Small D., Sohn B.W., SooHoo J., Sosapanta Salas L.D., Souccar K., Stanway J.S., Sun H., Tazaki F., Tetarenko A.J., Tiede P., Tilanus R.P.J., Titus M., Toma K., Torne P., Toscano T., Traianou E., Trent T., Trippe S., Turk M., van Bemmel I., van Langevelde H.J., van Rossum D.R., Vos J., Wagner J., Ward-Thompson D., Wardle J., Washington J.E., Weintroub J., Wharton R., Wielgus M., Wiik K., Witzel G., Wondrak M.F., Wong G.N., Wu Q., Yadlapalli N., Yamaguchi P., Yfantis A., Yoon D., Young A., Younsi Z., Yu W., Yuan F., Yuan Y.-F., Zensus J.A., Zhang S., Zhao G.-Y., Zhao S.-S., (The Event Horizon Telescope Collaboration), Bellazzini R., Berenji B., Bissaldi E., Blandford R.D., Bonino R., Bruel P., Cameron R.A., Caraveo P.A., Cavazzuti E., Cheung C., Ciprini S., Cristarella Orestano P., Cutini S., Di Lalla N., Dinesh A., Di Venere L., Dominguez A., Fegan S.J., Franckowiak A., Fukazawa Y., Fusco P., Gargano F., Gasbarra C., Germani S., Giliberti M., Green D., Grenier I.A., Hays E., Horan D., Kuss M., Larsson S., Liodakis I., Longo F., Loparco F., Lovellette M.N., Maldera S., Mazziotta M.N., I.Mereu, Michelson P.F., Mirabal N., Mizuno T., Monzani M.E., Morselli A., Negro M., Omodei N., Orlando E., Persic M., Raino S., Rani B., Reimer A., Reimer O., Sanchez-Conde M., Saz Parkinson P.M., Sgro C., Siskind E.J., Spinelli P., Suson D.J., Tajima H., Torres D.F., Zaharijas G., (The Fermi Large Area Telescope Collaboration), Aharonian F., Ait Benkhali F., Aschersleben J., Ashkar H., Backes M., Barbosa Martins V., Batzofin R., Becherini Y., Berge D., Bottcher M., Boisson C., Bolmont J., de Bony de Lavergne M., Borowska J., Bouyahiaoui M., Bradascio F., Brose R., Brown A., Bruno B., Bulik T., Burger-Scheidlin C., Casanova S., Cecil R., Celic J., Cerruti M., Chand T., Chen A., Chibueze J., Chibueze O., Cotter G., Damascene Mbarubucyeye J., Devin J., Djuvsland J., Dmytriiev A., Einecke S., Ernenwein J.-P., Feijen K., Fontaine G., Funk S., Gabici S., Glawion D., Glicenstein J.F., Goswami P., Grolleron G., Haerer L., He B., Holch T.L., Holler M., Horns D., Huang Z., Jamrozy M., Jankowsky F., Jung-Richardt I., Kasai E., Katarzynski K., Khatoon R., Khelifizniak B., Komin Nu., Kosack K., Kundu A., Lang R.G., Le Stum S., Leitl F., Lemiere A., Lemoine-Goumard M., Lenain J.-P., Leuschner F., Luashvili A., Mackey J., Malyshev D., Marti-Devesa G., Marx R., Meyer M., Mitchell A., Moderski R., Moghadam M.O., Mohrmann L., Montanari A., Moulin E., Niemiec J., O'Brien P., Ohm S., de Ona Wilhelmi E., Ostrowski M., Panny S., Panter M., Pensec U., Pita S., Quirrenbach A., Ravikularaman S., Reimer A., Reimer O., Reville B., Reis I., Ren H., Rieger F., Roellinghoff G., Rudak B., Ruiz-Velasco E., Sabri K., Sahakian V., Salzmann H., Santangelo A., Sasaki M., Schafer J., Schussler F., Schutte H.M., Shapopi J.N.S., Sharma A., Sol H., Spencer S., Stawarz L., Steppa C., Streil K., Suzuki H., Takahashi T., Tanaka T., Taylor A.M., Terrier R., Tluczykont M., Tsirou M., van Eldik C., Vecchi M., Wach T., Wagner S.J., Wierzcholska A., Zacharias M., Zdziarski A.A., Zech A., Zywucka N., (H.E.S.S. Collaboration), Abe S., Abhir J., Abhishek A., Acciari V.A., Aguasca-Cabot A., Agudo I., Aniello T., Ansoldi S., Antonelli L.A., Arbet Engels A., Arcaro C., Artero M., Asano K., Babic A., Barres de Almeida U., Barrio J.A., Batkovic I., Bautista A., Baxter J., Becerra Gonzalez J., Bednarek W., Bernardini E., Bernete J., Berti A., Besenrieder J., Bigongiari C., Biland A., Blanch O., Bonnoli G., Bosnjak Z., Bronzini E., Burelli I., Busetto G., Campoy-Ordaz A., Carosi A., Carosi R., Carretero-Castrillo M., Castro-Tirado A.J., Cerasole D., Ceribella G., Chai Y., Cifuentes A., Colombo E., Contreras J.L., Cortina J., Covino S., D'Amico G., D'Elia V., Da Vela P., Dazzi F., De Angelis A., De Lotto B., de Menezes R., Delfino M., Delgado J., Delgado Mendez C., Di Pierro F., Di Tria R., Di Venere L., Dominis Prester D., Donini A., Dorner D., Doro M., Elsaesser D., Escudero J., Farina L., Fattorini A., Foffano L., Font L., Frose S., Fukami S., Fukazawa Y., Garcia Lopez R.J., Garczarczyk M., Gasparyan S., Gaug M., Giesbrecht Paiva J.G., Giglietto N., Giordano F., Gliwny P., Godinovic N., Gradetzke T., Grau R., Green J.G., Gunther P., Hadasch D., Hahn A., Hassan T., Heckmann L., Herrera Llorente J., Hrupec D., Imazawa R., Ishio K., Jimenez Martinez I., Jormanainen J., Kayanoki T., Kerszberg D., Kluge G.W., Kobayashi Y., Kouch P.M., Kubo H., Kushida J., Lainez M., Lamastra A., Leone F., Lindfors E., Lombardi S., Lopez-Coto R., Lopez-Moya M., Lopez-Oramas A., Loporchio S., Lorini A., Lyard E., Machado de Oliveira Fraga B., Majumdar P., Makariev M., Maneva G., Manganaro M., Mangano S., Mannheim K., Mariotti M., Martinez M., Martinez-Chicharro M., Mas-Aguilar A., Menchiari S., Mender S., Miceli D., Miener T., Miranda J.M., Mirzoyan R., Molero Gonzalez M., Molina E., Mondal H.A., Moralejo A., Morcuende D., Nakamori T., Nanci C., Neustroev V., Nickel L., Nievas Rosillo M., Nigro C., Nikolic L., Nilsson K., Nishijima K., Njoh Ekoume T., Noda K., Nozaki S., Ohtani Y., Okumura A., Otero-Santos J., Paiano S., Paneque D., Paoletti R., Paredes J.M., Peresano M., Persic M., Pihet M., Pirola G., Podobnik F., Prada Moroni P.G., Prandini E., Priyadarshi C., Ribo M., Rico J., Righi C., Sahakyan N., Saito T., Saturni F.G., Schmidt K., Schmuckermaier F., Schubert J.L., Schweizer T., Sciaccaluga A., Silvestri G., Sitarek J., Sliusar V., Sobczynska D., Spolon A., Stamerra A., Striskovic J., Strom D., Strzys M., Suda Y., Suutarinen S., Tajima H., Takahashi M., Takeishi R., Tavecchio F., Temnikov P., Terauchi K., Terzic T., Teshima M., Truzzi S., Tutone A., Ubach S., van Scherpenberg J., Vazquez Acosta M., Ventura S., Verna G., Viale I., Vigorito C.F., Vitale V., Vovk I., Walter R., Will M., Wunderlich C., Yamamoto T., (MAGIC Collaboration), Acharyya A., Adams C.B., Bangale P., Bartkoske J.T., Benbow W., Christiansen J.L., Duerr A., Errando M., Feng Q., Foote G.M., Fortson L., Furniss A., Hanlon W., Hervet O., Hinrichs C.E., Holder J., Humensky T.B., Jin W., Johnson M.N., Kaaret P., Kertzman M., Kieda D., Kleiner T.K., Korzoun N., Krennrich F., Kumar S., Lang M.J., Lundy M., Maier G., McGrath C.E., Millard M.J., Mooney C.L., Moriarty P., Mukherjee R., Ning W., O'Brien S., Ong R.A., Pohl M., Pueschel E., Quinn J., Ragan K., Reynolds P.T., Ribeiro D., Roache E., Ryan J.L., Sadeh I., Saha L., Sembroski G.H., Shang R., Splettstoesser M., Talluri A.K., Tucci J.V., Valverde J., Vassiliev V., Williams D.A., Wong S.L., (VERITAS Collaboration), Chen Z., Cui L., Hirota T., Li B., Li G., Liu Q., Liu X., Liu Z., Ma J., Niinuma K., Ro H., Sakai N., Sawada-Satoh S., Wajima K., Wang J., Wang N., Xia B., Yan H., Yonekura Y., Zhang H., Zhao R., Zhong W., (EAVN Collaboration) <Astron. Astrophys. 692, A140 (2024)> =2024A&A...692A.140A 2024A&A...692A.140A (SIMBAD/NED BibCode)
ADC_Keywords: Galaxies, nearby ; Radio sources ; Photometry ; Optical Keywords: galaxies: active - galaxies: individual: M87 - galaxies: jets - galaxies: nuclei Abstract: The nearby elliptical galaxy M87 contains one of the only two supermassive black holes whose emission surrounding the event horizon has been imaged by the Event Horizon Telescope (EHT). In 2018, more than two dozen multi-wavelength (MWL) facilities (from radio to gamma-ray energies) took part in the second M87 EHT campaign. The goal of this extensive MWL campaign was to better understand the physics of the accreting black hole M87*, the relationship between the inflow and inner jets, and the high-energy particle acceleration. Understanding the complex astrophysics is also a necessary first step towards performing further tests of general relativity. The MWL campaign took place in April 2018, overlapping with the EHT M87* observations. We present a new, contemporaneous spectral energy distribution (SED) ranging from radio to very high energy (VHE) gamma-rays, as well as details of the individual observations and light curves. We also conduct phenomenological modelling to investigate the basic source properties. We present the first VHE gamma-ray flare from M87 detected since 2010. The flux above 350GeV has more than doubled within a period of ∼36 hours. We find that the X-ray flux is enhanced by about a factor of two compared to 2017, while the radio and millimetre core fluxes are consistent between 2017 and 2018.We detect evidence for a monotonically increasing jet position angle that corresponds to variations in the bright spot of the EHT image. Our results show the value of continued MWL monitoring together with precision imaging for addressing the origins of high-energy particle acceleration. While we cannot currently pinpoint the precise location where such acceleration takes place, the new VHE gamma-ray flare already presents a challenge to simple one-zone leptonic emission model approaches, and emphasises the need for combined image and spectral modelling. Description: The 2018 EHT observations of M87 were made in April 2018 using a total of 8 stations (in 6 geographical locations) across the globe. While observations were performed over 4 nights (April 21, 22, 25 and 28), the second and last sessions suffered from various issues (bad weather conditions across the array, poor baseline coverage, etc.). Therefore, reliable EHT images of M87* could only be obtained from the data taken on April 21 and 25. Flux results for each individual facility involved in the observational campaign. Further material: - SEDMWLtable1.dat : Broadband MWL SED (see Fig. 18 in the paper) - SEDmodelAPL_EHT.dat : Model A - for the EHT region considering a Power Law emission for Chandra+NuSTAR (see Fig. 19 in the paper) - SEDmodelAPL_HE.dat : Model A - for the High-Energy region considering a Power Law emission for Chandra+NuSTAR (see Fig. 19 in the paper) - SEDmodelABPL_EHT.dat : Model A - for the EHT region considering a Broken Power Law emission for Chandra+NuSTAR (see Fig. 21 in the paper) - SEDmodelABPL_HE.dat : Model A - for the High-Energy region considering a Broken Power Law emission for Chandra+NuSTAR (see Fig. 21 in the paper) - SED_modelB.dat : Model B (see Fig. 20 in the paper) - Broadband spectrum table with frequency, flux density, its uncertainty, and instrument index (format: DAT) - Sampled posterior distributions of the SED broadband spectral model (A-PL) described in Section 4.2 (format: DAT). - Sampled posterior distributions of the SED broadband spectral model (A-BPL) described in Section 4.3 (format: DAT). - Sampled posterior distributions of the SED broadband spectral model (B) described in Section 4.3 (format: DAT). Objects: ----------------------------------------- RA (2000) DE Designation(s) ----------------------------------------- 12 30 49.42 +12 23 28.0 M87 = NGC 4486 ----------------------------------------- File Summary: -------------------------------------------------------------------------------- FileName Lrecl Records Explanations -------------------------------------------------------------------------------- ReadMe 80 . This file tablec1.dat 70 76 Summary of radio cm-mm observations tablec2.dat 70 38 *Summary of ALMA 2018 and SMA 2017/2018 mm observations tablec3.dat 31 5 Kanata optical flux values for the wavelength of 634.9nm (or 4.7 x 1014Hz) tablec4.dat 31 7 Kanata NIR flux values for the wavelength of 1250nm (or 2.4 x 1014Hz) tablec5.dat 68 9 Optical and UV flux densities. tablec6.dat 68 1 Optical and UV flux densities of the host galaxy tablec7.dat 100 1 HST results of M87 observation in 2018 July tablec8.dat 90 1 *The UVIT results of observations from observations in April 2018 tablec9.dat 69 2 *The spectral results from -SXT observations (0.3-8 keV) in April 2018 tablec10.dat 58 9 Observations and Fluxes tablec11.dat 26 5 Chandra core fluxes for the observations performed in 2017 and 2018 tablec12.dat 21 20 Chandra+NuSTAR spectral values for stacked observation, normalised on 2018 emission tablec14.dat 56 17 VHE gamma-ray Observation Summary fmat/* . 5 Further material -------------------------------------------------------------------------------- Note on tablec2.dat: a full description of the data processing, imaging, and analysis see Goddi2019,Goddi2021. Note on tablec8.dat: A region of 5" is used to make these estimations. Note on tablec9.dat: A region of 15' centred on 87 coordinates is used as the source region. -------------------------------------------------------------------------------- Description of file: fmat/SEDmodelABPL_EHT.dat (Fig. 21 in the paper) fmat/SEDmodelAPL_EHT.dat (Fig. 19 in the paper) fmat/SEDmodelAPL_HE.dat (Fig. 19 in the paper) -------------------------------------------------------------------------------- Byte-by-byte Description of file (#): fmat/*ABPLEHT.datfmat/*APL* -------------------------------------------------------------------------------- Bytes Format Units Label Explanations -------------------------------------------------------------------------------- 1- 8 E8.3 Hz Freq Frequency 17- 31 E15.9 mW/m2 Flux1 SYN-EHT flux 33- 41 E9.3 mW/m2 Flux2 SSC-EHT flux 49- 56 E8.3 mW/m2 Flux3 Sum-EHT flux -------------------------------------------------------------------------------- Description of file: fmat/SED_modelB.dat (Fig. 20 in the paper) -------------------------------------------------------------------------------- Byte-by-byte Description of file (#): fmat/SED_modelB.dat -------------------------------------------------------------------------------- Bytes Format Units Label Explanations -------------------------------------------------------------------------------- 4- 19 E16.11 Hz Freq Frequency 22- 37 E16.11 mW/m2 Flux1 EHT oriented flux 40- 55 E16.11 mW/m2 Flux2 SYN-EHT flux 58- 73 E16.11 mW/m2 Flux3 SSC-EHT flux 76- 91 E16.11 mW/m2 Flux4 HE oriented flux 94-109 E16.11 mW/m2 Flux5 SYN-HE flux 112-127 E16.11 mW/m2 Flux6 SSC-HE flux 130-145 E16.11 mW/m2 Flux7 VHE-flare oriented flux 148-163 E16.11 mW/m2 Flux8 SYN-EHT flux 166-181 E16.11 mW/m2 Flux9 SSC-EHT flux 184-199 E16.11 mW/m2 Flux10 EHT+HE flux 202-217 E16.11 mW/m2 Flux11 EHT+HE+VHE flare flux -------------------------------------------------------------------------------- -------------------------------------------------------------------------------- Table C13: Fermi-LAT fluxes for the customised-bin light curve analysis on April 2018. -------------------------------------------------------------------------------- MJD Significance Flux in the 0.1-1000GeV band (σ) (10-8ph/cm2/s) 58216-58227 2.9 < 7.1 58227-58231 4.5 10.8±3.8 58231-58244 1.1 < 5.9 -------------------------------------------------------------------------------- -------------------------------------------------------------------------------- Table C15: Results of PL fit of the spectra measured with HESS, MAGIC and VERITAS. -------------------------------------------------------------------------------- IACT f0 E0 Γ_VHE energy range ±fstat±fsyst ±Γstat ±Γsyst (10-12/TeV/cm2/s) [TeV] [TeV] -------------------------------------------------------------------------------- HESS 0.74±0.06±0.15 1.27 2.05±0.11±0.10 0.31-6.90 MAGIC 17.4 ±3.3 ±1.91 0.27 2.57±0.34±0.15 0.05-1.00 VERITAS 0.83±0.16±0.21 1 2.41±0.30±0.20 0.31-3.00 -------------------------------------------------------------------------------- The notes "stat" and "syst" means statistical error and systematic error, respectively. -------------------------------------------------------------------------------- Byte-by-byte Description of file: tablec1.dat tablec2.dat -------------------------------------------------------------------------------- Bytes Format Units Label Explanations -------------------------------------------------------------------------------- 1 A1 --- Sample Sample (1) 3- 16 A14 --- ObsCode Observatopn code 20 A1 --- n_ObsCode [a] Note (2) 22- 31 A10 "date" ObsDate Observation date 33- 37 I5 d MJD Modified Julin date of observation 42- 46 F5.1 GHz Freq Observed frequency 49- 53 F5.3 Jy/beam BPeak Peak Brightness at Freq 55- 59 F5.3 Jy/beam e_BPeak Peak Brightness at Freq error 62- 65 F4.2 Jy STot ? Total Flux Density at Freq 67- 70 F4.2 Jy e_STot ? Total Flux Density at Freq error -------------------------------------------------------------------------------- Note (1): Sample as follows: A = VERA (beam: 1.0 mas circ.) B = EAVN/KaVA (beam: 1.0/0.5 mas circ. at 24/43GHz C = VLBA (beam: 1.0/0.5 mas circ. at 24/43GHz) D = KVN (beam: 1.0 mas circ. at 22/43/86/129GHz) E = Global 43GHz VLBI (beam: 0.25mas circ.) F = DGMVA+ALMA (beam: 0.20mas circ.) G = ALMA (beam: ∼2.5" at 93 GHz and ∼1-1.5" at 221 GHz) H = SMA (proj. baselines > 30 kλ; Θ < 6.8") Note (2): Note as follows: a = Corrected for the 22GHz receiver phase instability issue (see text for details) -------------------------------------------------------------------------------- Byte-by-byte Description of file: tablec3.dat tablec4.dat -------------------------------------------------------------------------------- Bytes Format Units Label Explanations -------------------------------------------------------------------------------- 1- 10 A10 "date" Obs.date Observation date 12- 19 F8.2 d Time Modified Julian date of observation 21- 25 F5.3 mJy Flux Flux 27- 31 F5.3 mJy FluxCorr Corrected flux (1) -------------------------------------------------------------------------------- Note (1): Flux that corrects interstellar-extinction in our galaxy (AR = 0.049, AJ = 0.016). -------------------------------------------------------------------------------- Byte-by-byte Description of file: tablec5.dat tablec6.dat -------------------------------------------------------------------------------- Bytes Format Units Label Explanations -------------------------------------------------------------------------------- 1- 7 F7.1 d ObsDate ? Observation modified Julian date 9- 13 F5.2 mJy FV ? Flux in V band 15- 18 F4.2 mJy e_FV ? Flux in V band error 20- 23 F4.2 mJy FB Flux in B band 25- 28 F4.2 mJy e_FB Flux in B band error 30- 33 F4.2 mJy FU Flux in U band 35- 38 F4.2 mJy e_FU Flux in U band error 40- 43 F4.2 mJy FUVW1 Flux in UVW1 band 45- 48 F4.2 mJy e_FUVW1 Flux in UVW1 band error 50- 53 F4.2 mJy FUVM2 ? Flux in UVW1 band 55- 58 F4.2 mJy e_FUVM2 ? Flux in UVW1 band error 60- 63 F4.2 mJy FUVW2 Flux in UVW2 band 65- 68 F4.2 mJy e_FUVW2 Flux in UVW2 band error -------------------------------------------------------------------------------- Byte-by-byte Description of file: tablec7.dat -------------------------------------------------------------------------------- Bytes Format Units Label Explanations -------------------------------------------------------------------------------- 1- 10 A10 "date" Obs.date Observation date 12- 14 I3 s TExp Exposure time 16- 21 A6 --- Filter Filter name 23- 28 F6.1 0.1nm lambda Effective wavelength (1) 30- 37 E8.3 mW/m2 Fluxcore Core flux (1) 39- 46 E8.3 mW/m2 e_Fluxcore Core flux error (1) 48- 55 E8.3 mW/m2 FluxHST HST flux (1) 57- 64 E8.3 mW/m2 e_FluxHST HST flux error (1) 66- 73 E8.3 mW/m2 NetFluxcore Core net flux (2) 75- 82 E8.3 mW/m2 e_NetFluxcore Core net flux error (2) 84- 91 E8.3 mW/m2 NetFluxHST HST net flux (2) 93-100 E8.3 mW/m2 e_NetFluxHST HST net flux error (2) -------------------------------------------------------------------------------- Note (1): Flux is uncorrected for contribution of the host galaxy. Note (2): Flux is corrected for contribution of the host galaxy. -------------------------------------------------------------------------------- Byte-by-byte Description of file: tablec8.dat -------------------------------------------------------------------------------- Bytes Format Units Label Explanations -------------------------------------------------------------------------------- 1- 10 A10 "date" ObsDate Observation date 12- 15 F4.1 ks TExp Exposure time 17- 20 A4 --- Filter Filter 22- 25 I4 0.1nm lambda Effective wavelength 27- 29 I3 0.1nm Dlambda Δλ 31- 36 F6.3 --- ZPT Zero-point used 38- 41 F4.2 --- e_ZPT Zero-point used error 43- 47 F5.2 mag mag1 Magnitude Code+HST1+Jet+Host 49- 52 F4.2 mag e_mag1 Magnitude Code+HST1+Jet+Host error 54- 59 F6.3 mag mag2 Magnitude Jet+Hostmod 61- 66 F6.3 mag mag3 Magnitude Code+Hostobs 68- 72 F5.3 mag e_mag3 Magnitude Code+Hostobs error 74- 81 E8.4 0.1mW/m2/nm FBaF2 BaF2 flux 83- 90 E8.4 0.1mW/m2/nm e_FBaF2 BaF2 flux error -------------------------------------------------------------------------------- Byte-by-byte Description of file: tablec9.dat -------------------------------------------------------------------------------- Bytes Format Units Label Explanations -------------------------------------------------------------------------------- 1- 10 A10 "date" ObsDate Observation date 12- 15 F4.1 ks TExp Exposure time 17- 23 F7.1 d MJD Observation modified Julian date 25- 28 F4.2 --- alphaC Powerlaw index for Core 29 A1 --- n_alphaC [f] Note on alphaC (1) 31- 34 F4.2 10-3ph/cm2/s/keV NC Normalisation for Core 36- 39 F4.2 10-3ph/cm2/s/keV e_NC Normalisation for Core error 40- 43 F4.2 --- alphaH Powerlaw index for HST1 44 A1 --- n_alphaH [f] Note on alphaH (1) 46- 49 F4.2 10-3ph/cm2/s/keV NH Normalisation for HST1 51- 54 F4.2 10-3ph/cm2/s/keV e_NH Normalisation for HST1 error 56- 59 F4.2 --- alphaJ Powerlaw index for Jet 60 A1 --- n_alphaJ [f] Note on alphaJ (1) 62- 65 F4.2 10-3ph/cm2/s/keV NJ Normalisation for Jet 67- 69 F3.1 10-3ph/cm2/s/keV e_NJ Normalisation for Jet error -------------------------------------------------------------------------------- Note (1): f = fixed to the chandra+nustar values. -------------------------------------------------------------------------------- Byte-by-byte Description of file: tablec10.dat -------------------------------------------------------------------------------- Bytes Format Units Label Explanations -------------------------------------------------------------------------------- 1- 11 I11 --- Obs Observation ID 13- 22 F10.4 d MJD Observation modified Julian date 24- 27 F4.2 ks Tesp Exposure time 29- 33 F5.2 10-15W/m2 Ftot Total Flux in 2-10keV band (1) 35- 38 F4.2 10-15W/m2 e_Ftot Total Flux in 2-10keV band lower error (1) 40- 43 F4.2 10-15W/m2 E_Ftot Total Flux in 2-10keV band upper error (1) 45- 48 F4.2 10-15W/m2 FBet Net Flux in 2-10keV band (2) 50- 53 F4.2 10-15W/m2 e_FBet Net Flux in 2-10keV band lower error (2) 55- 58 F4.2 10-15W/m2 E_FBet Net Flux in 2-10keV band upper error (2) -------------------------------------------------------------------------------- Note (1): flux represents the flux derived from the spectral fits including all large-scale emission from the surrounding galaxy and cluster. Note (2): Net flux corresponds to the flux from the core, the HST-1 knot, and jet, excluding larger-scale emission. -------------------------------------------------------------------------------- Byte-by-byte Description of file: tablec11.dat -------------------------------------------------------------------------------- Bytes Format Units Label Explanations -------------------------------------------------------------------------------- 1- 7 A7 --- ObsID Observation ID 9- 16 F8.2 d MJD Modified Julian date of observation 18- 21 F4.2 10-15W/m2 Flux Core flux estimated in the 2-10keV band 23- 26 F4.2 10-15W/m2 e_Flux Core flux estimated in the 2-10keV band error -------------------------------------------------------------------------------- Byte-by-byte Description of file: tablec12.dat -------------------------------------------------------------------------------- Bytes Format Units Label Explanations -------------------------------------------------------------------------------- 1- 11 A11 keV Energy Energy band 13- 16 F4.2 10-15W/m2 Flux Core flux estimate 18- 21 F4.2 10-15W/m2 e_Flux Core flux estimate error -------------------------------------------------------------------------------- Byte-by-byte Description of file: tablec14.dat -------------------------------------------------------------------------------- Bytes Format Units Label Explanations -------------------------------------------------------------------------------- 1- 7 A7 --- IACT Instrument 9- 16 F8.2 d Start Time (MJD) 18- 25 F8.2 d Stop Time (MJD) 27- 30 F4.2 h ObsTime Effective observation time 32- 36 A5 deg ZA Zenith angle 38- 41 F4.2 --- Signi Significance (in sigma unit) 43- 46 F4.2 10-12ph/cm2/s Flux Flux at E>350GeV 48- 51 F4.2 10-12ph/cm2/s E_Flux Error on Flux (upper value) (1) 53- 56 F4.2 10-12ph/cm2/s e_Flux Error on Flux (lower value) (1) -------------------------------------------------------------------------------- Note (1): Only statistical 1σ errors on the fluxes are given. 95% confidence level upper limits are given for flux measurements with less than 2σ significance. -------------------------------------------------------------------------------- Acknowledgements: Giacomo Principe, giacomo.principe(at)inaf.it
(End) Patricia Vannier [CDS] 04-Sep-2024
The document above follows the rules of the Standard Description for Astronomical Catalogues; from this documentation it is possible to generate f77 program to load files into arrays or line by line