Novel Perspectives for Hadron Physics
Stanley J. Brodsky

TL;DR
This paper explores novel and unexpected aspects of quantum chromodynamics, including nonperturbative quark origins, breakdown of factorization, corrections to scaling, and new theoretical perspectives like light-front holography and in-hadron condensates.
Contribution
It introduces new insights into QCD phenomena and proposes innovative theoretical frameworks such as light-front holography and the principle of maximum conformality.
Findings
Intrinsic heavy quarks originate nonperturbatively at large x
Breakdown of pQCD factorization due to initial- and final-state interactions
In-hadron condensates resolve the QCD vacuum and cosmological constant conflict
Abstract
I discuss several novel and unexpected aspects of quantum chromodynamics. These include: (a) the nonperturbative origin of intrinsic strange, charm and bottom quarks in the nucleon at large light-cone momenta x; the breakdown of pQCD factorization theorems due to the lensing effects of initial- and final-state interactions; (b) important corrections to pQCD scaling for inclusive reactions due to processes in which hadrons are created at high transverse momentum directly in the hard processes and their relation to the baryon anomaly in high-centrality heavy-ion collisions; and (c) the nonuniversality of quark distributions in nuclei. I also discuss some novel theoretical perspectives in QCD: (a) light-front holography -- a relativistic, color-confining, first approximation to QCD based on the AdS/CFT correspondence principle; (b) the principle of maximum conformality -- a method which…
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Taxonomy
TopicsParticle physics theoretical and experimental studies · Black Holes and Theoretical Physics · Quantum Chromodynamics and Particle Interactions
