The new Ultra High Fluence and Dose Radiation Sensor will allow irradiation tests of FCC equipment and, at a later stage, the monitoring of radiation levels in the FCC itself.
by Matthias Mentink, Alexey Dudarev, Helder Filipe Pais Da Silva, Christophe Paul Berriaud, Gabriella Rolando ,Rosalinde Pots, Benoit Cure, Andrea Gaddi, Vyacheslav Klyukhin, Hubert Gerwig, Udo Wagner, Herman ten Kate
The Future Circular Collider study for hadron-hadron collisions (FCC-hh) foresees a collision energy of 100 TeV. This means that the detector magnets have to provide strong magnetic fields over longer distances compared to the LHC experiments. One of the conceptual detector magnet designs currently being developed for FCC-hh is the “Twin Solenoid”, which features two concentric superconducting solenoids.
A new design for the FCC-hh detector magnet: towards a smaller, simpler and especially more cost-effective solution.
The new Ultra High Fluence and Dose Radiation Sensor will allow irradiation tests of FCC equipment and, at a later stage, the monitoring of radiation levels in the FCC itself.
The Future Circular Collider study for hadron-hadron collisions (FCC-hh) foresees a collision energy of 100 TeV. This means that the detector magnets have to provide strong magnetic fields over longer distances compared to the LHC experiments. One of the conceptual detector magnet designs currently being developed for FCC-hh is the “Twin Solenoid”, which features two concentric superconducting solenoids.