Italy has been one of the key players in the effort that led to the discovery awarded the 2013 Nobel Prize for Physics, having provided a highly recognized technological contribution both to the LHC and to the experiments. The top priority of the European Strategy for Particle Physics is the exploitation of the full potential of the LHC including the high-luminosity upgrade of the machine and detectors. To be able to contribute at the international level and to foster common R&D projects the INFN Workshop on Future Detectors for HL-LHC (IFD2014) was held in Trento (March 11-13, 2014) to focus on the upgrades of the experiments for the High Luminosity LHC. The goal was to establish an open framework to discuss and work on new ideas for research and development where expertise can be shared and expanded across the different INFN experimental groups. This effort aimed to explore and consolidate a constructive interaction within different national research centers, facilities and industry also to better prepare for Horizon2020 applications.
At the same time INFN started the What Next (WN) program, a process based on open and wide discussions to investigate possible new research ideas and to promote new science-driven experiments. It is clear that new or improved technologies play a crucial role to pave the road towards the necessary breakthrough for possible discoveries.
With this aim IFD2015 in Torino, became the INFN Workshop on Future Detectors (December 16-18, 2015), where the What Next challenge to identify new ideas to be explored was technology-driven exploiting cross synergies coming out from different research groups, research facilities and industry.
Chairmen: Nadia Pastrone, Valter Bonvicini
PHYSICS-DRIVEN DETECTOR CHALLENGES |
Future accelerator challenges PoS(IFD2015)002 pdf |
Future rare event challenges PoS(IFD2015)003 |
Future neutrino + Extensive Air Shower challenges PoS(IFD2015)004 pdf |
Future space challenges PoS(IFD2015)005 pdf |
ENABLING TECHNOLOGIES IN DETECTOR CHALLENGES |
Nanostructured materials for particle detector PoS(IFD2015)006 pdf |
New sensors PoS(IFD2015)007 |
How can we use SiC? PoS(IFD2015)008 pdf |
New low radiation background material technology PoS(IFD2015)010 pdf |
New low temperature and superconductivities challenges technology PoS(IFD2015)011 |
LARGE DETECTORS |
MPGD: new developments and applications PoS(IFD2015)012 pdf |
Large area detectors PoS(IFD2015)014 |
Future large volume neutrino detectors PoS(IFD2015)016 pdf |
NEUTRAL PARTICLES |
New generation of photodetectors PoS(IFD2015)017 |
New trends in calorimetry PoS(IFD2015)020 |
New detectors for light sources PoS(IFD2015)022 pdf |
New neutron detections PoS(IFD2015)023 pdf |
CHARGED PARTICLES |
Ricordo Prof.Pier Francesco Manfredi PoS(IFD2015)024 |
Vertexing and tracking with high radiation environment and high pile-up PoS(IFD2015)025 |
Tracking in 4 dimensions PoS(IFD2015)026 pdf |
L1 trigger track and pattern recognition applications PoS(IFD2015)027 |
Hybridization, interconnection advances PoS(IFD2015)030 |
AXIONS AND GRAVITATIONAL WAVES DETECTORS |
Technologies for future gravitational waves detectors PoS(IFD2015)031 |
New detectors for axions PoS(IFD2015)032 pdf |
NOVEL IDEAS AND APPLICATIONS |
What are the new challenges in hadroteraphy? PoS(IFD2015)033 |
New needs and directions in microelectronics and ultrafast electronics PoS(IFD2015)036 pdf |
What's new for Dark Matter (WIMP) detection? PoS(IFD2015)037 |
WRAP-UP |
IFD2015: conclusive remarks and perspectives PoS(IFD2015)038 pdf |