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Non-Thermal Astrophysics

Division Prof. Dr. Jim Hinton

Research in the division covers two main areas: 

  • high-energy astrophysics exploring the sources and acceleration processes of high-energy particles in the Universe, and
  • probing particle physics beyond the Standard Model.

Our high energy astrophysics research is based primarily on ground-based gamma-ray astronomy using atmospheric Cherenkov telescopes and dense particle detector arrays to measure gamma rays emitted by high-energy particles in our Galaxy and beyond. The division has contributed major elements of the hardware of the H.E.S.S. Cherenkov telescopes and the HAWC high-energy extension, and plays a significant role in preparing the next generation Cherenkov Telescope Array - CTA. The group is also heavily engaged with research and development towards the Southern Wide-field-of-view Gamma-ray Observatory – SWGO. Associated research groups cover the theory and phenomenology of high energy astrophysics, plasma astrophysics and infrared astrophysics.

Exploring the properties of neutrinos, and in particular the search for neutrinoless double-beta decay, is another major activity of the division. We play a leading role in the LEGEND project at the Gran Sasso underground laboratory, following up on the success of its predecessor GERDA

In the area of accelerator-based particle physics projects we are members of the LHCb collaboration, focusing on the study of heavy-quark production and decays, with emphasis on the phase space relevant to both particle physics and cosmic-ray physics.

Research Fields

Associated research activities

News

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H.E.S.S. watches a nova outburst for the first time

Last August marked the first opportunity to observe a nova outburst in very-high-energy gamma rays and to follow both its growth and subsequent fading…

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Tracers of cosmic ray propagation

Halos around pulsars in very-high-energy gamma rays provide decisive clues.

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Very-high-energy afterglow of a gamma-ray burst challenges emission scenarios

Researchers from the H.E.S.S. Collaboration succeeded to derive the intrinsic spectrum of the very-high-energy gamma-ray afterglow emission of a…

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