High-Energy QCD as a Topological Field Theory
John Ellis, N. E. Mavromatos
Abstract
We propose an identification of the conformal field theory underlying Lipatov's spin-chain model of high-energy scattering in perturbative QCD. It is a twisted N=2 supersymmetric topological field theory, which arises as the limiting case of the SL(2,R)/U(1) non-linear sigma model that also plays a role in describing the Quantum Hall effect and black holes in string theory. The doubly-infinite set of non-trivial integrals of motion of the high-energy spin-chain model displayed by Faddeev and Korchemsky are identified as the Cartan subalgebra of a W∞ W∞ bosonic sub-symmetry possessed by this topological theory. The renormalization group and an analysis of instanton perturbations yield some understanding why this particular topological spin-chain model emerges in the high-energy limit, and provide a new estimate of the asymptotic behaviour of multi-Reggeized-gluon exchange.
Create a lesson
Related papers
Axionic Casimir Torque
Soham Ghatak
Testing Minimal U(2)3 Right-Handed Flavor Breaking in a Singlet-Scalar Vector-Like Quark Portal
Qazi Maaz Us Salam
Dalitz plot binning optimization for the model-independent measurement of the CKM angle β with B0 D π+ π-, D KS0 π+ π- decays
Anfeng Li, Wenbin Qian, Boan Shi et al.
From Dirac Neutrino Mass to Dark Radiation: An A4-Symmetric FIMP Dark Matter Framework
Pritam Das, Anupam Deka, Debajyoti Dutta
Modular S4 Inverse Seesaw at the LZ High-Recoil Frontier
Waqas Ahmed, Vasileios Basiouris, George K. Leontaris
Quantum circuit representation and incomplete Bell measurements in Compton scattering
Wei Xie, Yu-Chen Guo, Shuang Li et al.