SNRs, PWNe, and gamma-ray binaries: the ASTRI/CTA mini-array view

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9th ASTRI Collaboration Meeting Universidade de São Paulo Instituto de Astronomia, Geofisica e Ciencias Atmosferica SNRs, PWNe, and gamma-ray binaries: the ASTRI/CTA mini-array view A. Giuliani INAF / IASF Milano S. Vercellone, P. Romano INAF / IASF Palermo for the ASTRI Collaboration & the CTA Consortium 1

Slide Title Good sensitivity for energies greater than 10 TeV IN A PR EL IM High-Energy end of the source spectra RY! 100 hr Particles spectra very near the knee energy Stamerra et al 2

Slide Title Large Field of View Large exposure of the Galactic plane Multiple source observations Transient and serendipitous sources 3

Slide Title Large Field of View Large exposure of the Galactic plane Multiple source observations Transient and serendipitous sources 4

Slide Title Good angular resolution @ HE Unidentified Sources 5

SN 1006 Remnant of the historical SN 1006 Strong Radio and X emission due to synchrotron demonstrates the presence of TeV electrons, 6

SN 1006 Remnant of the historical SN 1006 Strong Radio and X emission due to synchrotron demonstrates the presence of TeV electrons, TeV emission detected by HESS, morphologically well correlated with the emission in the Hard X band (after convolution with HESS Psf) 7

SN 1006 Remnant of the historical SN 1006 Strong Radio and X emission due to synchrotron demonstrates the presence of Tev electrons, TeV emission detected by HESS, morphologically well correlated with the emission in the Hard X band (after convolution with HESS Psf) N/S regions with similar spectrum ~ 2.3 btw.1 and 10 TeV Acero et al. 2010, A&A, A62 8

SN 1006 Remnant of the historical SN 1006 Strong radio and x emission due to synchrotron demonstrates the presence of TeV electrons, TeV emission detected by HESS, morphologically well correlated with the emission in the Hard X band (after convolution with HESS Psf) N/S regions with similar spectrum ~ 2.3 btw.1 and 10 TeV The leptonic scenario fail to fit the data > 10 TeV Acero et al. 2010, A&A, A62 9

SN 1006 Remnant of the historical SN 1006 Strong radio and x emission due to synchrotron demonstrate the presence of tev electrons, TeV emission detected by HESS, morphologically well correlated with the emission in the Hard X band (after convolution with HESS Psf) N/S regions with similar spectrum ~ 2.3 btw.1 and 10 TeV The leptonic scenario fail to fit the data > 10 TeV Hadronic component @ HE Acero et al. 2010, A&A, A62 10

Slide Title Remnant of the historical SN 1006 Strong Radio and X emission due to synchrotron demonstrate the presence of tev electrons, TeV emission detected by HESS, morphologically well correlated with the emission in the Hard X band (after convolution with HESS Psf) N/S regions with similar spectrum ~ 2.3 btw.1 and 10 TeV The leptonic scenario fail to fit the data > 10 TeV Hadronic component @ HE Tang et al 2013, RAA, 13 11

RCW 86 Young remnant (~2000 yrs) Sees in Radio band, Xrays, Gev (Fermi) and TeV (HESS) Interacting with molecular clouds or 1713-like? 12

RCW 86 Young remnant (~2000 yrs) Sees in Radio band, Xrays, Gev (Fermi) and TeV (HESS) Interacting with molecular clouds or 1713-like? 13

RCW 86 Young remnant (~2000 yrs) Sees in Radio band, Xrays, Gev (Fermi) and TeV (HESS) Interacting with molecular clouds or 1713-like? 14

RCW 86 Young remnant (~2000 yrs) Sees in Radio band, Xrays, Gev (Fermi) and TeV (HESS) Interacting with molecular clouds or 1713-like? M I L E PR Y R A N I Giuliani et al., ICRC 34, in prep. 15

Challenges Kepler SNR SN 1987A Not yet observed in gamma-rays Hard TeV emission expected Tang et al 2013, RAA, 13 16

HESS J1641-463 Abramowski et al, 2014 H.E.S.S. spectrum accumulated in 72 hr Very hard source, sp.ind. ~ 2.1 17

HESS J1641-463 Abramowski et al, 2014 H.E.S.S. spectrum accumulated in 72 hr Very hard source, sp.ind. ~ 2.1 It can be monitored for 492 hr [Feb. - Sept., ZA < 35deg] (Work in progress) We can investigate: - performance of the mini-array (SVP); - is there a spectral cut-off? at which energy? - nature of this source, SNR? PWN? Binary? PRELIMINARY! 18

HESS J1641-463 Abramowski et al, 2014 H.E.S.S. spectrum accumulated in 72 hr Very hard source, sp.ind. ~ 2.1 It can be monitored for 492 hr [Feb. - Sept., ZA < 35deg] (Work in progress) We can investigate: - performance of the mini-array (SVP); - is there a spectral cut-off? at which energy? - nature of this source, SNR? PWN? Binary? PRELIMINARY! Romano, Vercellone, Giuliani et al., ICRC 34, in prep. 19

Crab Features @ HE end of the spectrum - other not-ic components? - B the TeV cut-off location depends on Sync vs IC coolings processes Variability above 10 TeV (Electrons ~100 TeV producing syc. flares @ 100 MeV produce IC @ 10 TeV) 20

Other PWNe Morphological Studies - morphology / size vs energy (HESS 1825-137, Vela X) - Evolution of the PWNe HE spectrum: - maximum electron energies - derive B PWN in Milagro sources (Geminga) 21

LS 5039 Dubus, 2013 Aharonian et al, 2006 H.E.S.S. spectrum accumulated in 70 hr Data are not well constrained above 10 TeV It can be monitored [Mar. - Sept., ZA<35 deg] for more than 400 hr It can be studied simultaneously with PWN HESS J1825-137 We can investigate: phase-dependent gamma-ray absorption/emission; phase-dependent spectral modulation. 22

LS 5039 Dubus, 2013 Aharonian et al, 2006 H.E.S.S. spectrum accumulated in 70 hr Data are not well constrained above 10 TeV It can be monitored [Mar. - Sept., ZA<35 deg] for more than 400 hr It can be studied simultaneously with PWN HESS J1825-137 We can investigate: phase-dependent gamma-ray absorption/emission; phase-dependent spectral modulation. 23

LS 5039 ASTRI/CTA Mini-array, 7 units. ASTRIsim 100 hr simulation - 50 hr INFC - 50 hr SUPC Next step: Simulation of the detection performance at different orbital phases. PRELIMINARY! Romano, Vercellone, Giuliani et al., ICRC 34, in prep. 24

PSR B1259-63 Aharonian et al, 2005 H.E.S.S. spectrum accumulated in 50 hr Porb ~ 1236.72 d (~ 3.4 yr). A few points above a few TeV It can be monitored [Jan. - Jun, ZA < 35deg] for more than 150 hr. It can be studied simultaneously with PWN HESS J1303-631. We can investigate [next periastron passage: ~ 2017-0921]: phase-dependent gamma-ray flux, probing different theoretical emission models (peak and dim around periastron, is it periodic?) 25

PSR B1259-63 PRELIMINARY! Aharonian et al, 2005 ASTRI/CTA mini-array, 7-units. ASTRIsim 100 hr simulation of the average spectrum. Next step: simulation of the possible flux evolution as a function of the time relative to the periastron passage in order to possibly discriminate different emission scenarios. 26

Conclusion : We will have a lot of fun with the ASTRI-CTA mini-array! Thanks! 27