International Journal of Modern Physics C · 2000 · 15 citations · 10 references
Natural SciencesPhysicsComputational PhysicsMachine LearningNuclear PhysicsCollider PhysicsHadron PhysicsHeavy-ion PhysicsNeural NetworksNuclear ModelsStrong InteractionHadron Collider PhysicsHadronic ScatteringMulti-parton InteractionsMultiplicity FunctionsNeural Network ModelingProton-proton Collisions
An efficient neural network (NN) has been designed to simulate the hadron–hadron interaction at high energy. Two cases have been considered simultaneously, the proton–proton (p–p) and the pion–proton (π-p) interactions. The neural network has been trained to produce the charged multiplicity distribution for both cases based on samples from the overlapping functions. The trained NN shows a good performance in matching the trained distributions. The NN is then used to predict the distributions that are not present in the training set and matched them effectively. The robustness of the designed NN in the presence of uncertainties, in the overlapping functions has been demonstrated.
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Scaling of multiplicity distributions in high energy hadron collisions
Z. Koba, H.B. Nielsen, P. Olesen · Nuclear Physics B · 1972 · 1.1K citations
Enrico Fermi · Progress of Theoretical Physics · 1951 · 261 citations · Full text
Scaling violations in multiplicity distributions at 200 and 900 GeV
G.J. Alner, R.E. Ansorge, B. Åsman et al. · Physics Letters B · 1986 · 175 citations
Engineering, High-performance Computing, Generalizability Theory +1
Cross Sections and Charged-Particle Multiplicities at 102 and 405 GeV/<i>c</i>
C. Bromberg, D. Chaney, David H. Cohen et al. · Physical Review Letters · 1973 · 166 citations