FACT. Alerts from TeV Gamma Rays in the Context of Multi Messenger Astrophysics. Daniela Dorner for the FACT Collaboration

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Transcription:

FACT Alerts from TeV Gamma Rays in the Context of Multi Messenger Astrophysics for the FACT Collaboration

First G APD Cherenkov Telescope Major Goals Proof of principle: Silicon based photo sensors (G APDs*) in Cherenkov Telescopes Successful operation since October 2011 Observing Strategy: Longterm monitoring Sample: Few bright TeV Blazars Variability studies Multi wavelength correlations Flare alerts to other instruments * Geiger mode Avalanche Photodiodes Photo: Thomas Bretz

Facts about FACT 2200 m a.s.l. Observatorio del Roque de los Muchachos, La Palma HEGRA CT3 mount 9.5 m² mirror area G APD camera Silicon based photosensors 4.5 FoV, 1440 pixels à 0.11 H Anderhub et al 2013 JINST 8 P06008 Operational since Oct 2011 Excellent performance Photo: Thomas Krähenbühl A Biland et al 2014 JINST 9 P10012

Targets for FACT: Blazars Spectral energy distribution: Two peak structure Multi wavelength observations crucial http://chandra.harvard.edu/resources/illustrations/quasar.html

Spectral Energy Distribution Mrk 421 Abdo A. et al. ApJ 736, 131, 2011 Radio IR/opt. X Ray Ray VHE

Targets for FACT: Blazars http://chandra.harvard.edu/resources/illustrations/quasar.html Spectral energy distribution: Two peak structure Multi wavelength observations crucial Extreme variability on different time scales unbiased data sampling vital

Extreme Variability V. A. Acciari et al. (VERITAS), ApJ 729: 2, 2011 Mrk 501

Targets for FACT: Blazars http://chandra.harvard.edu/resources/illustrations/quasar.html Spectral energy distribution: Two peak structure Multi wavelength observations crucial Extreme variability on different time scales unbiased data sampling vital

Long term Variability Mrk 421 V. Acciari et al. ApP 54: 1 (2014) Whipple Monitoring 14 years, monthly binning

Short term Variability IC 310 Flux Aleksic, J. et al., Science p (2014)

Orphan Flare 1ES 1959+650 Krawczynski, H. et al., ApJ 601 p151 164 (2004)

Orphan Flare 1ES 1959+650 Krawczynski, H. et al., ApJ 601 p151 164 (2004)

Periodicity Flux count rate Kranich D. et al, ICRC 1999 Time [MJD]

Periodicity Kranich D. et al, ICRC 1999

Periodicity Flux count rate Kranich D. et al, ICRC 1999 Time [MJD]

Requirements Monitoring No gaps Unbiased sample Stable monitoring

FACT Ideal Monitoring Telescope Photo: Observations during strong moon light Larger duty cycle More complete data sample G APDs robust and stable Stable telescope performance Remote and automatic operation High data taking efficiency

Shower images recorded pointing to brightest full moon in 2013. Photos: D. Dorner, T. Krähenbühl

FACT Ideal Monitoring Telescope Photo: Observations during strong moon light Larger duty cycle More complete data sample G APDs robust and stable Stable telescope performance Remote and automatic operation High data taking efficiency

FACT Ideal Monitoring Telescope Photo: Observations during strong moon light Larger duty cycle More complete data sample G APDs robust and stable Stable telescope performance Remote and automatic operation High data taking efficiency

Towards Robotic Operation Local operation Remote operation http://www.fact-project.org/smartfact

Towards Robotic Operation Operation via smartphone Local operation Automatic Operation http://www.fact-project.org/smartfact

FACT Ideal Monitoring Telescope Observations during strong moon light Larger duty cycle More complete data sample G APDs robust and stable Stable telescope performance Remote and automatic operation High data taking efficiency

Data Taking Efficiency

FACT Ideal Monitoring Telescope Observations during strong moon light Larger duty cycle More complete data sample G APDs robust and stable Stable telescope performance Remote and automatic operation High data taking efficiency

Monitoring at TeV Energies Mrk 501 (2013) 1 hour binning FACT All data ~410h standard VHE monitoring Moon < 65% 1h every ~ 3 rd night ~32h

Monitoring at TeV Energies Mrk 501 (2013) 1 hour binning FACT All data ~410h standard VHE monitoring Moon < 65% 1h every ~ 3 rd night ~32h

3.5 Years of Monitoring Mrk421 Mrk501

Quick Look Analysis http://www.fact-project.org/monitoring

Quick Look Analysis http://www.fact-project.org/monitoring Since 2012/12/12 Results within the same night Publicly available Flare alerts MWL and ToO observations

Quick Look Analysis http://www.fact-project.org/monitoring Since 2012/12/12 Results within the same night Publicly available Flare alerts MWL and ToO observations If you want to have the data, just contact me: dorner@astro.uni wuerzburg.de

Mrk 501 Flare Alerts Excess rate curve from QLA: 1.6. 10.8.2014 Flare Alert 8./9. June 2014 Flare Alert 20./21. June 2014 Observations with Flare Alert 18./19. June 2014 other instruments

Mrk 501 Flare Alerts Excess rate curve from QLA: 1.6. 10.8.2014 Flare Alert 23./24. June 2014 Astronomer's Telegram #6268

Mrk 501 Flares May/June 2012 18.5. 30.6.2012 Triggered MAGIC observations

Mrk 501 Flares May/June 2012 MAGIC: http://143.107.180.38/indico/contributiondisplay.py?contribid=934&sessionid=3&confid=0

Daniela Multi Wavelength Campaign Mrk 421 PRELIMINARY FACT GeV 15 50 kev 2 20 kev 2 10 kev 800 days Amit Shukla 15 GHz

Multi Wavelength Campaign Mrk 421 PRELIMINARY FACT GeV 15 50 kev 2 20 kev 2 10 kev 800 days Amit Shukla 15 GHz

Outlook Mrk 501: 18.5. 30.6.2012

Outlook Mrk 501: 18.5. 30.6.2012

Outlook Mrk 501: 18.5. 30.6.2012 Gaps due to daytime 18 hours

Outlook Mrk 501: 18.5. 30.6.2012 18 hours Gaps due to daytime continuous monitoring around the globe needed

Continuous Monitoring FACT Gaps due to daytime DWARF Network (M. Backes et. al ICRC 2009)

Continuous Monitoring FACT Gaps due to daytime Continuous monitoring around the globe needed DWARF Network (M. Backes et. al ICRC 2009)

Continuous Monitoring OMEGA FACT HEGRO GAPD Gaps due to daytime Continuous monitoring around the globe needed

Continuous Monitoring OMEGA FACT HEGRO GAPD Gaps due to daytime Continuous monitoring around the globe needed

Second Telescope: M@TE M@TE: Monitoring at TeV Energies 2 mounts from OMEGA project available Mexico: two possible sites: 5 or 7 hours from La Palma Goal: Equip mount with improved SiPM camera close more gaps in TeV monitoring

Summary http://www.fact-project.org/monitoring M@TE FACT Continuous monitoring around the globe

Backup

Crab Spectrum F. Temme et al. (FACT Collaboration), ICRC 2015

Quick Look Analysis Quick look analysis since 2012/12/12 Results publicly available since 2013/09/01 Official flare alerts since 2014/03/18 http://www.fact-project.org/monitoring Results available within the same night Flare alerts to other instruments Target of Opportunity programs

Mrk 501 Flares May/June 2012 PRELIMINARY Gareth Hughes MAGIC: http://143.107.180.38/indico/contributiondisplay.py?contribid=934&sessionid=3&confid=0 The Future of Research on Cosmic Gamma Rays, La Palma, 2015

Check out our monitoring results! http://www.fact-project.org/monitoring flare alerts 3.5 years monitoring [ JINST 9(2014) P10012 ] arxiv:1502.02582