We describe the measurement of the light quark mass ratios when one calculates to second order in the quark masses. At this order there is an ambiguity in the meaning of the quark mass, which afBicts the past attempts to provide a model-independent measurement of the ratios. We argue that this is similar to the regularization-scheme dependence of coupling constants. We study the anomalous Ward identities and the effects of strong CP violation in an attempt to resolve the ambiguity. The ambiguity persists even with singlet fields, such as the g\u27, but can be resolved by observing the 9 dependence of the theory. Since matrix elements of FF are related to BXQCQ/80, they are useful probes of quark masses. We give a procedure by which quark ma...
We provide a systematic renormalization group formalism for the mass effects in the relation of the ...
Simple relations between the masses of the two lightest up and down quarks were obtained on the basi...
We compute the strange quark mass <sub>m</sub> and the average of the u and d quark mass...
We describe the measurement of the light quark mass ratios when one calculates to second order in th...
We derive a consistent set of light quark mass ratios which are compatible with the available constr...
Significant progresses in lattice calculations of light and heavy quark masses have been allowed by ...
We investigate the masses of the light quarks with lattice QCD. We show that most of the large depen...
We compute the light and strange quark masses mℓ=(mu+md)/2 and ms , respectively, in unquenched latt...
A fully non-perturbative lattice determination of the up/down and strange quark masses is given for ...
We analyze the quark mass hierarchy and the CKM matrix precisely using the universal Yukawa coupling...
We derive a consistent set of light quark mass ratios which are compatible with the available constr...
It is shown that if, from the starting point of a universal rank-one mass matrix long favoured by ph...
Lecture Notes, Summer School on Masses of Fundamental Particles, Cargese, 1996. In the first part, s...
Quantum chromodynamics has placed the problem of hadronic symmetry breaking on a rational basis. The...
Chiral corrections to the Weinberg quark current-mass ratios mu/md=0.55 and ms/md=20.1 are analysed ...
We provide a systematic renormalization group formalism for the mass effects in the relation of the ...
Simple relations between the masses of the two lightest up and down quarks were obtained on the basi...
We compute the strange quark mass <sub>m</sub> and the average of the u and d quark mass...
We describe the measurement of the light quark mass ratios when one calculates to second order in th...
We derive a consistent set of light quark mass ratios which are compatible with the available constr...
Significant progresses in lattice calculations of light and heavy quark masses have been allowed by ...
We investigate the masses of the light quarks with lattice QCD. We show that most of the large depen...
We compute the light and strange quark masses mℓ=(mu+md)/2 and ms , respectively, in unquenched latt...
A fully non-perturbative lattice determination of the up/down and strange quark masses is given for ...
We analyze the quark mass hierarchy and the CKM matrix precisely using the universal Yukawa coupling...
We derive a consistent set of light quark mass ratios which are compatible with the available constr...
It is shown that if, from the starting point of a universal rank-one mass matrix long favoured by ph...
Lecture Notes, Summer School on Masses of Fundamental Particles, Cargese, 1996. In the first part, s...
Quantum chromodynamics has placed the problem of hadronic symmetry breaking on a rational basis. The...
Chiral corrections to the Weinberg quark current-mass ratios mu/md=0.55 and ms/md=20.1 are analysed ...
We provide a systematic renormalization group formalism for the mass effects in the relation of the ...
Simple relations between the masses of the two lightest up and down quarks were obtained on the basi...
We compute the strange quark mass <sub>m</sub> and the average of the u and d quark mass...