Non-perturbative versus perturbative renormalization of lattice operators
Gockeler, M., Horsley, R., Ilgenfritz, Ernst-Michael, Oelrich, H., Perlt, H., Rakow, Paul E. L., Schierholz, G., Schiller, A.
Abstract
Gockeler, M., Horsley, R., Ilgenfritz, Ernst-Michael, Oelrich, H., Perlt, H., Rakow, Paul E. L., Schierholz, G., Schiller, A.
Abstract
Our objective is to compute the moments of the deep-inelastic structure functions of the nucleon on the lattice. A major source of uncertainty is the renormalization of the lattice operators that enter the calculation. In this talk we compare the renormalization constants of the most relevant twist-two bilinear quark operators which we have computed non-perturbatively and perturbatively to one loop order. Furthermore, we discuss the use of tadpole improved perturbation theory.
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Our objective is to compute the moments of the deep-inelastic structure functions of the nucleon on the lattice. A major source of uncertainty is the renormalization of the lattice operators that enter the calculation. In this talk we compare the renormalization constants of the most relevant twist-two bilinear quark operators which we have computed non-perturbatively and perturbatively to one loop order. Furthermore, we discuss the use of tadpole improved perturbation theory.
Key concepts: Renormalization, Non-perturbative, Physics, Lattice (music), Twist, Lattice field theory, Mathematical physics, Perturbation theory (quantum mechanics)