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Marco Cuffiani

Associate Professor

Department of Physics and Astronomy "Augusto Righi"

Academic discipline: FIS/01 Experimental Physics

Curriculum vitae

Born in 1960; PhD in Physics;  researcher at the University of Bologna (1990-2002); associate professor since 2002.  Scientific work in the field of experimental high energy physics.  I am co-author of more than 350 papers, published in international journals.

Member of the ABCDHW collaboration since 1983.   The experiment collected data of proton-proton, antiproton-proton, deuteron-deuteron and alpha-alpha collisions at the Split Field Magnet spectrometer at the CERN Intersecting Storage Rings. Both minimum bias events and events with high transverse momentum particles were studied.  Among the published results, inclusive distributions in rapidity, momentum and transverse momentum,  short-range and Bose-Einstein correlations.     The structure of events created after very high energy collisions between light nuclei (d-d and alpha-alpha) were analysed for the first time.   Inclusive differential cross sections in the whole phase space at three different energies, between 31 and 63 GeV, were measured with high statistics data samples. My contribution was based, in particular, in the analysis of minimum bias events.

Member of the OPAL collaboration since 1987.  The experiment collected data of electron-positron annihilations at the CERN Large Electron Positron collider between 1989 and 2000.    The main goals of the experiment ranged from precise measurements of the electroweak parameters (in particular, the Z0 boson lineshape) to new particles searches.    Since 1996, in the LEP2 phase, the collision energy was increased from 91 GeV to about 161 GeV (i.e. the threshold for the creation of W+W- pairs) and beyond.        I was involved in two physics working groups:   (1) New particle searches: I analysed data searching for the Higgs boson and for scalar and vector Leptoquarks.  No signal was found so that lower mass limits could be improved for these particles.   (2) QCD and fragmentation studies: several kinds of correlations among particles produced in the collisions were studied.  These correlations give informations concerning the hadronizations mechanism and the dimension, shape and time evolution of the particle source created after the collision.

Since 2002 an additional field of interst is the application of some nanotechnologies.   The I.N.F.N. (Istituto Nazionale di Fisica Nucleare) R&D project NANOCHANT tested the possibility to use templates of porous alumina, whose pores have been filled with nanoconductors (either carbon nanotubes or metal nanowires) as radiation detectors with sub-micrometer spatial resolution.    Presently, the CANTES project is analysing the applications of the field emission of electrons by films of carbon nanotubes, both free-standing and confined in templates.

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