EDIT 2026 - Preparations
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Lecture Program
Lectures (Academic, Basic)
• Academic lectures will cover the fundamental concepts of detector technologies such as gaseous, silicon, photon, etc. as well as cross-cutting topics such as signal processing, modeling, and simulation, which are essential for designing, characterizing, and interpreting the performance of detectors and instrumentation.
• Clear connection to the laboratory sessions (almost one to one).
• Two lectures per day.
• Each topic will consist of two hours of lectures, split across two days to facilitate interaction between students and lecturers (including discussions and follow-up on key questions).
• Everyone is encouraged to propose names.Invited Talks (Review, Application-Driven, Future-Oriented)
• Keynote speakers – relevant scientist in the field
• One-hour contributions, approximately one per day.
• Possible topics include: Avenues for the Physics to Come; Particle Accelerators: Past, Present, and Future; State-of-the-Art and Future Perspectives in Tracking, Calorimetry, Timing, and Beam Instrumentation; Engineering and Mechanics of Future Detectors; Neutrino Physics; Physics Beyond Colliders (PBC); Particle Physics and Medical Applications; Applications Beyond HEP; Quantum Technology Sensors.
• Everyone is encouraged to propose topics and speaker names. -
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Lab exercises
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a) Lab 1: Solid State Detectors
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b) Lab 2: Gaseous Detectors
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c) Lab 3: Photon Detectors
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d) Lab 4: Signal Processing and Front End Electronics
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e) Lab 5: Detector Modelling and Simulation
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f) Lab 6: DAQ and Trigger
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g) Lab 7: Beam Instrumetation/Radiation Monitoring and Instrumentation
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h) Lab 8: Visits to mechanics, cooling workshops & DSF
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Lab Safety Documentation
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Discussion
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