WP-Technology Working Group Future of Ground Based Gamma-ray Astronomy Feb 8, 2007 1 Technology & Cost WP Working Group GOALS With the Current Generation.

Slides:



Advertisements
Similar presentations
The MAGIC telescope and the GLAST satellite La Palma, Roque de los Muchacos (28.8° latitude ° longitude, 2225 m asl) INAUGURATION: 10/10/2003 LAT.
Advertisements

High-energy particle acceleration in the shell of a supernova remnant F.A. Aharonian et al (the HESS Collaboration) Nature 432, 75 (2004) Nuclear Physics.
Cut off more slowly ~ 50GeV Thompson astro-ph/ Credit: A.K. Harding (NASA/GSFC) Our first target: Crab pulsar/nebula The standard candle for gamma-ray.
Detection of Gamma-Rays and Energetic Particles
Gamma-Ray Astronomy Call no Assoc. Prof. Markus Böttcher Clippinger # 339 Phone:
Jamie Holder School of Physics and Astronomy, University of Leeds, U.K Increasing the Collection Area for IACTs at High Energies Future of Gamma Ray Astronomy.
Gus Sinnis HAWC Review December 2007 Milagro a TeV Gamma-Ray Observatory Gus Sinnis Los Alamos National Laboratory.
The Transient Universe: AY 250 Spring 2007 New High Energy Telescopes Geoff Bower.
H.E.S.S. High Energy Stereoscopic System Jon Cerny Bancroft-Rosalie School August 2002.
The Milagro Gamma-Ray Observatory By Timothy Willett CROP: Roncalli Division.
Jamie Holder School of Physics and Astronomy, University of Leeds, U.K Optical SETI at Leeds Using Cherenkov Light Buckets as Optical SETI Detectors RAS.
The Milagro Gamma-Ray Observatory Milagro is a water Cherenkov extensive air shower (EAS) detector located near Los Alamos, NM at 2630m above sea level,
1 Gamma-Ray Astronomy with GLAST May 24, 2008 Toby Burnett WALTA meeting.
The Spectrum of Markarian 421 Above 100 GeV with STACEE Jennifer Carson UCLA / Stanford Linear Accelerator Center February MeV 1 GeV 10 GeV 100.
Sept. 18, 2008SLUO 2008 Annual Meeting Detector R&D at KIPAC Hiro Tajima Kavli InStitute of Particle Astrophysics and Cosmology.
The future of ground-based gamma ray astronomy Where do we go?
On A Large Array Of Midsized Telescopes Stephen Fegan Vladimir Vassiliev UCLA.
Exploring the Universe with Particles and Rays: α, β, γ, X, Cosmic, … Toby Burnett Prof, UW.
Search of High Energy Cosmic Sources with the Plataforma Solar de Almeria: The GRAAL Experiment Fernando Arqueros Universidad Complutense de Madrid F.
1 Tuning in to Nature’s Tevatrons Stella Bradbury, University of Leeds T e V  -ray Astronomy the atmospheric Cherenkov technique the Whipple 10m telescope.
Bucharest, ROMANIA, October 15, 2009 Very High Energy Gamma Ray Astrophysics. Future Developments in Romania Aurelian Radu Institute for Space Sciences.
22 February 2006 Quo Vadis ? Wide Field Imaging A Wide Angle Very Low Threshold Air Cherenkov Imaging Telescope Razmick Mirzoyan MPI Munich, Germany.
High-Energy Astrophysics
Astrophysics With the Cherenkov Telescope Array P. Coppi (for F. Aharonian, MPIK, Heidelberg)
Incontri di Fisica delle Alte Energie IFAE 2006 Pavia Vincenzo Vitale Recent Results in Gamma Ray Astronomy with IACTs.
Gus Sinnis RICAP, Rome June 2007 High Altitude Water Cherenkov Telescope  Gus Sinnis Los Alamos National Laboratory for the HAWC Collaboration.
X.-X. Li, H.-H. He, F.-R. Zhu, S.-Z. Chen on behalf of the ARGO-YBJ collaboration Institute of High Energy Physics Nanjing GRB Conference,Nanjing,
Cosmic-Ray Detection at the ARGO-YBJ observatory P. Camarri University of Roma “Tor Vergata” INFN Roma Tor Vergata.
Introduction to gamma-ray astronomy GLAST-Large Area Telescope Introduction to GLAST Science New way of studying astrophysics Schedule of GLAST project.
Recent TeV Observations of Blazars & Connections to GLAST Frank Krennrich Iowa State University VERITAS Collaboration GSFC, October 24, 2002 AGN.
Gamma-Ray Telescopes. Brief History of Gamma Ray Astronomy 1961 EXPLORER-II: First detection of high-energy  -rays from space 1967 VELA satelllites:
Atmospheric shower simulation studies with CORSIKA Physics Department Atreidis George ARISTOTLE UNIVERSITY OF THESSALONIKI.
Argonne / U. Chicago Initiative on R & D for Next Generation Ground Based Gamma-ray Particle Astrophysics/Astronomy Karen Byrum Jun 7, 2010 Argonne National.
Development of Ideas in Ground-based Gamma-ray Astronomy, Status of Field and Scientific Expectations from HESS, VERITAS, MAGIC and CANGAROO Trevor C.
CTA The next generation ultimate gamma ray observatory M. Teshima Max-Planck-Institute for Physics.
1 Caltech Jan High Energy Gamma Astronomy Patrick Fleury (Ecole Polytechnique ) LIGO-G R.
Future directions in Ground-Based Gamma-Ray Astronomy Simon Swordy - TeV Particle Astro II, UW Madison, 2006.
Gus Sinnis Asilomar Meeting 11/16/2003 The Next Generation All-Sky VHE Gamma-Ray Telescope.
Multi-TeV  -ray Astronomy with GRAPES-3 Pravata K Mohanty On behalf of the GRAPE-3 collaboration Tata Institute of Fundamental Research, Mumbai Workshop.
Matteo Palermo “Estimation of the probability of observing a gamma-ray flare based on the analysis of the Fermi data” Student: Matteo Palermo.
Gamma-Ray Astronomy with the ARGO-YBJ experiment G. Di Sciascio INFN – Sez. Roma “TorVergata” On behalf of ARGO-YBJ Collaboration 5th AGILE Workshop 2008.
Future Gamma-Ray Observatories APS White Paper Meeting Thurs. 8 Feb 2007 in McGaw Hall 1:30-5:00 Bring a 1-viewgraph idea to share or just come and listen.
Extending the Sensitivity Of Air-Cerenkov Telescopes Steve Biller, Oxford University (de la Calle & Biller – astro-ph/ )
HAWC Science  Survey of 2  sr (half the sky) up to 100 TeV energies Probe knee in cosmic ray spectrum Identify sources of Galactic cosmic rays  Extended.
1st page of proposal with 2 pictures and institution list 1.
Hybrid measurement of CR light component spectrum by using ARGO-YBJ and WFCTA Shoushan Zhang on behalf of LHAASO collaboration and ARGO-YBJ collaboration.
1 João Espadanal, Patricia Gonçalves, Mário Pimenta Santiago de Compostela 3 rd IDPASC school Auger LIP Group 3D simulation Of Extensive Air.
VERITAS Observations Of M 31 and some results about my recent work
A Future All-Sky High Duty Cycle VHE Gamma Ray Detector Gus Sinnis/Los Alamos with A. Smith/UMd J. McEnery/GSFC.
June 6, 2006 CALOR 2006 E. Hays University of Chicago / Argonne National Lab VERITAS Imaging Calorimetry at Very High Energies.
Pheno Symposium, University of Wisconsin-Madison, April 2008John Beacom, The Ohio State University Astroparticle Physics in the LHC Era John Beacom The.
05/02/031 Next Generation Ground- based  -ray Telescopes Frank Krennrich April,
Alexander Kappes (E. Strahler, P. Roth) ECAP, Universität Erlangen-Nürnberg for the IceCube Collaboration 2009 Int. Cosmic Ray Conf., Łódź,
Sources emitting gamma-rays observed in the MAGIC field of view Jelena-Kristina Željeznjak , Zagreb.
Z. Cao, H.H. He, J.L. Liu, M. Zha Y. Zhang The 2 nd workshop of air shower detection at high altitude.
Detecting Air Showers on the Ground
MAGIC Telescopes - Status and Results 2009/ Isabel Braun Institute for Particle Physics, ETH Zürich for the MAGIC collaboration CHIPP Plenary Meeting.
Fermi Gamma-ray Space Telescope Searches for Dark Matter Signals Workshop for Science Writers Introduction S. Ritz UCSC Physics Dept. and SCIPP On behalf.
Gamma-ray Large Area Space Telescope -France -Germany -Italy -Japan -Sweden -USA Energy Range 10 keV-300 GeV. GLAST : - An imaging gamma-ray telescope.
The Large High Altitude Air Shower Observatory LHAASO.
1 Observation of GRBs at tens of GeV with a full-coverage air shower array at m elevation Zhaoyang Feng (Speaker), Yiqing Guo, Yi Zhang, Hong.
The end of the electromagnetic spectrum
The 2nd workshop of air shower detection at high LHAASO detection of dark matter and astrophysical gamma ray sources Xiao-Jun Bi IHEP, CAS.
Abstract: In distinguishing between the atmospheric Cerenkov light initiated by the primary cosmic ray and its associated air shower, the Track Imaging.
1 Cosmic Ray Physics with IceTop and IceCube Serap Tilav University of Delaware for The IceCube Collaboration ISVHECRI2010 June 28 - July 2, 2010 Fermilab.
Future Imaging Atmospheric Cherenkov Telescopes:
Capability of Extended Air Shower Arrays for Gamma-Ray Astronomy
HAWC Science Survey of 2p sr up to 100 TeV energies Extended Sources
Detection of GRB with Water Cherenkov Detectors
Presentation transcript:

WP-Technology Working Group Future of Ground Based Gamma-ray Astronomy Feb 8, Technology & Cost WP Working Group GOALS With the Current Generation of IACTs, Ground-based gamma-ray astronomy has entered a new era! Technology detector R&D: –Identify technology and collaborate in the detector R&D required to design a future ground based gamma-ray observatory Simulations: –To perform simulations needed to test different designs for science goals and cost/sensitivity Who we are: Jim Buckley, Karen Byrum, Brenda Dingus, Gary Drake, Steve Fegan, John Finley, Liz Hays, Jamie Holder, Deirdre Horan, Alexander Konopelko, Frank Krennrich, Stephen Lebohec, Andy Smith, Vladimir Vassiliev, Scott Wakely PLEASE JOIN THE FUN

WP-Technology Working Group Future of Ground Based Gamma-ray Astronomy Feb 8, Gamma ray ( or Cosmic ray) interacts in the upper atmosphere (big calorimeter) and initiates a shower of charged particles (mainly e +/- ) The shower develops along the direction of the primary gamma. High energy electrons with v> c/n emit Cherenkov light. Cherenkov Light Flashes (~ a few ns) are briefly brighter than fluctuations in night sky light. IACTs (Imaging Atmospheric Cherenkov Telescopes) record this Cherenkov flash. EAS detectors look for the particles directly. About 25% of primary gamma ray energy makes it to the ground in the form of particles. Background is cosmic ray showers -isotropic Extensive Air Showers

WP-Technology Working Group Future of Ground Based Gamma-ray Astronomy Feb 8, Ground Based vs Satellite Differences  Satellite (Glast 30MeV – 300GeV):  Primary detection  Small effective area ~1m 2  lower sensitivity  Large angular opening  Large duty-cycle  Large cost  Lower energy  Low bkg  IACT (100GeV – 1TeV) / EAS (500GeV – 100TeV):  Secondary detection (Cherenkov/ Tail catcher)  Large effective area ~10 4 m 2 /Moderate-Large  higher sensitivity  Small/ Large angular opening  Small/ Large duty-cycle  Low cost  High energy  High bkg

WP-Technology Working Group Future of Ground Based Gamma-ray Astronomy Feb 8, Technology WP Working Group Goals for The Next Ground Based Generation: Needs lower energy threshold. Present generation at ~100GeV -> can this be made 10GeV? –higher source count rate –more cosmological reach Needs higher intrinsic source sensitivity, down to ergs/cm 2 s in a few hours (x present arrays) –discover more objects –see more distant objects Needs wider field of view –survey the sky –find diffuse emissions Higher duty factor –Serendipitous discovery –All sky monitor Robotics/Lightweight mirrors Altitude, bigger dishes, higher QE, high speed trigger, ASICs, FPGAs Higher QE, triggering, better bkgd rejection, smaller pixels Hybrids, new optical designs Bkgd rejection, triggering

WP-Technology Working Group Future of Ground Based Gamma-ray Astronomy Feb 8,