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| Tscherenkow-Detektion× | Kalibrierung von Kalorimetern× | |
|---|---|---|
| Fachgebiet | Teilchenphysik | Teilchenphysik |
| Familie | Process / pipeline | Process / pipeline |
| Entstehungsjahr≠ | 1934 | 1990 |
| Urheber≠ | Pavel Cherenkov | Detector physics community |
| Typ≠ | Optical detection method | Energy measurement framework |
| Wegweisende Quelle≠ | Cherenkov, P. A. (1934). Visible radiation produced by electrons moving in a medium with velocities exceeding that of light. Physical Review, 52(4), 378. link ↗ | Aad, G., et al. (ATLAS Collaboration). (2012). Measurements of Higgs boson production. Physical Review Letters, 108(11), 111803. link ↗ |
| Aliasnamen | Cherenkov light, Cherenkov ring imaging, threshold detection | energy calibration, detector response, response function |
| Verwandt | 3 | 3 |
| Zusammenfassung≠ | Cherenkov detection exploits the emission of electromagnetic radiation when a charged particle travels through a medium faster than light travels in that same medium. This enables precise particle identification and mass measurement through analysis of Cherenkov light patterns, forming a cornerstone technology in modern high-energy physics detectors. | Calorimeter calibration establishes the relationship between the measured energy deposited in a detector and the true energy of incident particles. Precise calibration is essential for physics measurements, Higgs boson properties, and new physics searches at colliders, requiring careful control of systematic uncertainties. |
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