Non-perturbative quark mass dependence in the heavy-light sector of two-flavour QCD

Abstract

We present preliminary results of the non-perturbative heavy quark mass dependence of heavy-light meson observables in the continuum limit of finite-volume two-flavour lattice QCD. These observables, which are derived from heavy-light Schroedinger functional correlation functions and computed over a range of renormalization group invariant heavy quark masses from the charm to beyond the bottom region, allow for a quantitative comparison with the predictions of HQET and are of practical relevance for solving renormalization problems in HQET non-perturbatively by a matching to QCD in finite volume.

arXiv comment7 pages, pdflatex; talk presented at Lattice 2008, XXVI International Symposium on Lattice Field Theory, July 14-19, 2008, Williamsburg, Virginia, USA

References in corpus (11)

• Further results on O(a) improved lattice QCD to one-loop order of perturbation theory
• Non-perturbative quark mass renormalization in two-flavor QCD
• Non-perturbative Heavy Quark Effective Theory
• Three-Loop Chromomagnetic Interaction in HQET
• Non-perturbative renormalization of the axial current with dynamical Wilson fermions
• On cutoff effects in lattice QCD from short to long distances
• Exploring the HMC trajectory-length dependence of autocorrelation times in lattice QCD
• Non-perturbative renormalization of the static axial current in two-flavour QCD
• Non-perturbative tests of Heavy Quark Effective Theory
• Quenched lattice calculation of the vector channel B --> D* l nu decay rate
• Towards a non-perturbative matching of HQET and QCD with dynamical light quarks

Cited by in corpus (5)

• HQET at order 1/m: I. Non-perturbative parameters in the quenched approximation
• Non-perturbative improvement of quark mass renormalization in two-flavour lattice QCD
• HQET at order $1/m$: II. Spectroscopy in the quenched approximation
• Introduction to Non-perturbative Heavy Quark Effective Theory
• Towards Precision B-physics from Non-Perturbative Heavy Quark Effective Theory