We review the present theoretical and empirical knowledge for α s, the fundamental
coupling underlying the interactions of quarks and gluons in Quantum Chromodynamics …

The last five years have brought considerable progress in the study of the bound-state
problem in continuum quantum field theory. We highlight a subset of that progress; viz., that …

We survey contemporary studies of hadrons and strongly interacting quarks using QCD's
Dyson—Schwinger equations, addressing the following aspects: confinement and …

Studies of the structure of excited baryons are key factors to the N* program at Jefferson Lab
(JLab). Within the first year of data taking with the Hall B CLAS12 detector following the 12 …

It is currently widely accepted that gluons, while massless at the level of the fundamental
QCD Lagrangian, acquire an effective mass through the non-Abelian implementation of the …

We compute the full nonperturbative ghost and gluon two-point Green functions by using
gauge field configurations with N f= 2 and N f= 2+ 1+ 1 twisted-mass quark flavors. We use …

We unify two widely different approaches to understanding the infrared behavior of quantum
chromodynamics (QCD), one essentially phenomenological, based on data, and the other …

We explain a form for the rainbow-ladder kernel whose momentum dependence is
consonant with modern DSE-and lattice-QCD results, and assess its capability as a tool in …

We present an analytic description of numerical results for the Landau-gauge SU (2) gluon
propagator D (p 2), obtained from lattice simulations (in the scaling region) for the largest …

We review the infrared properties of the pure Yang–Mills correlators and discuss recent
results concerning the two classes of low-momentum solutions for them reported in …