TY - GEN
T1 - Dynamic Testing and Characterization of Advanced Materials in a New Experiment at CERN HiRadMat Facility
AU - Bertarelli, Alessandro
AU - Accettura, Carlotta
AU - Berthomé, Emmanuel
AU - Bianchi, Laura
AU - Carra, Federico
AU - Fichera, Claudio
AU - Frankl, M
AU - Gobbi, Giorgia
AU - Grosclaude, Philip
AU - Valenzuela, Jorge
AU - Guinchard, Michael
AU - Lechner, A
AU - Pasquali, Michele
AU - Redaelli, Stefano
AU - Rigutto, E.
AU - Sacristan de Frutos, O.
AU - Bolz, Ph
AU - Simon, P
AU - Furness, Thomas
AU - Mollicone, P
AU - Portelli, M
PY - 2018/6
Y1 - 2018/6
N2 - An innovative and comprehensive experiment (named "Multimat") was successfully carried out at CERN HiRadMat facility on 18 different materials relevant for Collimators and Beam Intercepting Devices. Material samples, tested under high intensity proton pulses of 440 GeV/c, exceeding the energy density expected in HL-LHC, ranged from very light carbon foams to tungsten heavy alloys, including novel composites as graphite/carbides and metal/diamond without and with thin-film coatings. Experimental data were acquired relying on extensive integrated instrumentation (strain gauges, temperature sensors, radiation-hard camera) and on laser Doppler vibrometer. This allows investigating relatively unexplored and fundamental phenomena as dynamic strength, internal energy dispersion, nonlinearities due to inelasticity and inhomogeneity, strength and delamination of coatings and surfaces. By benchmarking sophisticated numerical simulations against these results, it is possible to establish or update material constitutive models, which are of paramount importance for the design of devices exposed to interaction with particle beams in high energy accelerators such as the HL-LHC or FCC-hh.
AB - An innovative and comprehensive experiment (named "Multimat") was successfully carried out at CERN HiRadMat facility on 18 different materials relevant for Collimators and Beam Intercepting Devices. Material samples, tested under high intensity proton pulses of 440 GeV/c, exceeding the energy density expected in HL-LHC, ranged from very light carbon foams to tungsten heavy alloys, including novel composites as graphite/carbides and metal/diamond without and with thin-film coatings. Experimental data were acquired relying on extensive integrated instrumentation (strain gauges, temperature sensors, radiation-hard camera) and on laser Doppler vibrometer. This allows investigating relatively unexplored and fundamental phenomena as dynamic strength, internal energy dispersion, nonlinearities due to inelasticity and inhomogeneity, strength and delamination of coatings and surfaces. By benchmarking sophisticated numerical simulations against these results, it is possible to establish or update material constitutive models, which are of paramount importance for the design of devices exposed to interaction with particle beams in high energy accelerators such as the HL-LHC or FCC-hh.
KW - experiment
KW - target
KW - damping
KW - site
KW - proton
U2 - 10.18429/JACoW-IPAC2018-WEPMF071
DO - 10.18429/JACoW-IPAC2018-WEPMF071
M3 - Conference contribution
SP - 2534
EP - 2537
BT - 9th International Particle Accelerator Conference
PB - Joint Accelerator Conferences Website (JACoW)
ER -
