G. Passardi

TL;DR: In this paper, an ionization signal was detected by collecting drift electrons onto an anode mesh, and a scintillation signal by collecting photoelectons in a silicon photodiode immersed in the liquid.

TL;DR: In this paper, the DELPHI Barrel RICH prototype test results were used as input data to a Monte Carlo prototype simulation, in part B, to interpret the ring imaging beam tests.

TL;DR: The DELPHI barrel RICH detector as discussed by the authors is a photo-sensitive gas detector with a ring-imaging technique, and it has been shown to be very fast for future hadron colliders.

TL;DR: The DELPHI Barrel RICH prototype has been used for particle identification in this paper, where the results show that the prototype performance predicted by Monte Carlo simulations, as a function of the drift distance z d and the particle incidence angle θ b, have been achieved (particle identification between 0.17 and 35 GeV/c ).

TL;DR: The recent publication of Miyajima et al. as discussed by the authors strongly criticized a paper [Nucl. Instr. and Meth. A 352 (1995) 548] which we published several years ago on measurements of W and W s, the energy needed to create an electron or photon by ionization or scintillation, respectively, in liquid Xenon (LXe).