About
Scintillator-based detectors are widely used in particle physics experiments, owing to their tracking and calorimetric capabilities.
Traditionally, high spatial resolution alongside a massive active target requires both segmentation and optical separation, that comes at the cost of increased manufacturing complexity and a massive number of readout channels.
To overcome these challenges, newly developed technologies aim to enhance 3D tracking performance without sacrificing target mass. For organic scintillators, current efforts include the high-precision assembly of tiny scintillating plastic cubes or fibers, as well as 3D-printing optically-isolated voxels within monolithic blocks. Similarly, 3D optical separation or tracking in opaque liquid scintillators present promising options.
Finally, sub-millimetre tracking resolution using arrays of plenoptic cameras imaging a volume of scintillato, without the need of segmentation or optical fibers, can be made possible by ongoing developments in photosensor technologies.
After a brief review of scintillator detectors deployed in current experiments, I will discuss ongoing R&D geared toward future detectors and experiments.
Coffee will be served at 10:30
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The talk
Credits and licence
- Institution
- CERN
- Speaker
- Davide Sgalaberna
- Year
- 2026
- Language
- English
- Subjects
- Physics
- Source
- CERN
- Licence
- CERN, as CERN states it. CERN's terms
- Attribution
- © CERN. CERN provides its audiovisual media free of charge for educational and informational use, credited to CERN; this lecture is shown in CERN's own player.
- Who can watch
- CERN gives no rating. Invisible Network shows it to Tweens profiles and older, judged from what the source says about it. How courses are placed