Main courses:

• Welcome: S. Basa ( Basa_Intro.pdf )

• General introduction: N. Gehrels ( Gehrels Intro.pdf ).

• Detection techniques and observational properties: C. Guidorzi ( Guidorzi_Tech_I.pdf and Guidorzi_Tech_II_V2.pdf )

• Physical description of the phenomenon:

  • The models of the central source: S.-C. Yoon ( Yoon_Progenitors_I.pdf and Yoon_Progenitors_II.pdf )

  • Prompt and Afterglow emissions: F. Daigne ( Daigne_Theory_I.pdf and Daigne_Theory_II.pdf )

  • Supernova connection: D. Bersier ( Bersier_SN.pdf )

• The GRB population: N. Tanvir ( Tanvir_Pop_I.pdf and Tanvir_Pop_II.pdf )

• Host galaxy properties: S. Savaglio ( Savaglio_Host.pdf )

• Cosmology with the GRBs:

  • Cosmological parameters, reionization era, ...: H.-W. Chen ( Chen_Cosmo.pdf )

  • Stellar black holes and GRBs at the Dawn of the Universe: F. Mirabel ( Mirabel_BH.pdf )

  • Absorption systems: J. Prochaska ( Prochaska_I.pdf and Prochaska_II.pdf )

• Tutorials on Swift data analysis: K. Page ( Page_Tutorial.pdf ):

  • Swift/HEASOFT: http://swift.gsfc.nasa.gov/docs/software/lheasoft/download.html

  • XMM-SAS: http://xmm.esa.int/sas/current/downloadandinstall.shtml

  • Exercise: http://www.star.le.ac.uk/~kpa/worksheet.pdf

• Tutorials on Fermi data analysis: F. Piron ( Piron_Tutorial.pdf )

• The challenges in the next decade: J. Grindlay ( Grindlay-Challenges_I.pdf and Grindlay-Challenges_II.pdf )

• Conclusion: A. Castro-Tirado ( CastroTirado_Conclusion.pdf )

Small oral contributions

1. R. Hascoet: Origin of the bright prompt optical emission in the naked-eye burst ( Hascoet.pdf )

2. F. Piron: Fermi observations of GRB prompt emission ( Piron.pdf )

3. R. Filgas: Two-component jet of GRB 080413B ( Filgas.pdf )

4. S. Schulze: The optical-to-X-ray flux density ratio of Swift afterglows ( Schulze.pdf )

5. Z. Cano: The GRB-SN connection: Exploring GRB progenitors with multi-wavelength observations ( Cano.pdf )

6. A. Rowlinson: Discovery of the afterglow and host galaxy of the low redshift short GRB 080905A ( Rowlinson.pdf )

7. A. Franckowiak: Optical follow-up of high-energy neutrinos detected by IceCube ( Franckowiak.pdf )

8. A. Dietz: Searches for gravitational waves associated with gamma-ray bursts in LIGO and Virgo data ( Dietz.pdf )

9. T. Aune: VERITAS Observations of Gamma-Ray Bursts ( Aune.pdf )

10. M. Vecchi: Detection of transient sources of HE neutrinos with the ANTARES telescope ( Vecchi.pdf )

11. S. Vergani: GRB host galaxies with X-Shooter ( Vergani.pdf )

12. C. Koen: Predicting GRB redshifts from lightcurves ( Koen.pdf )

13. Y. Qiu: The Optical Telescope for SVOM Mission ( Qiu.pdf )

14. S. Davis: Proton Beam Instability Simulations of Energy Transfer in Gamma-ray Bursts via Laser Irradiation on CH–H+ Foil ( Davis.pdf )

Posters

• D. Burlon: Characterizing precursor emission from BATSE to Swift-BAT ( Burlon.pdf , paper 1 and paper 2)

• N. Mawson: The Liverpool Telescope: Observations with the STILT (Small Telescopes Installed at LT) wide field instruments ( Mawson.pdf )

• V. Pelassa: Fermi observations of GRB long-lived emissions and afterglows ( Pelassa.pdf )

• M. Petropoulou: X-ray plateaus in the context of the one-zone SSC model for GRB afterglows ( Petropoulou.pdf )

• J. Ripa: Data from the RHESSI satellite support the option that three gamma-ray burst groups exist ( Ripa.pdf )

• A. Rossi: GRB 080928: Synchrotron light from 1eV to 150keV ( Rossi.pdf )

• S. Schanne: SVOM, a future mission for Gamma-Ray Burst studies ( Schanne.pdf )

• J. Tello: Large Aperture GRB Observatory ( Tello.pdf and related paper)