String from Large N Gauge Fields via Graph Summation on a P+ - x+ Lattice
Charles B. Thorn

TL;DR
This paper explores a discretized approach to summing planar diagrams in large N_c QCD, aiming to understand how string theory might emerge at strong coupling and its potential duality with QCD in light-cone gauge.
Contribution
The authors develop a discretization method for P+ and x+ to analyze the strong coupling limit of planar diagrams, facilitating the study of QCD-string duality.
Findings
Discretization enables defining a strong coupling sum of planar diagrams.
Framework supports exploring QCD-string duality in light-cone gauge.
Potential insights into string emergence from large N_c QCD at strong coupling.
Abstract
I describe renewed efforts to establish a string description of large N_c QCD by summing large ``fishnet'' diagrams. Earlier work on fishnets indicated that the usual relativistic (zero thickness) string theory can arise at strong 't Hooft coupling, at best yielding a highly idealized description, which fails to incorporate such salient features of continuum QCD as asymptotic freedom and point-like constituents. The recently conjectured AdS/CFT correspondence is compatible with such limitations because it also gives a simple picture of large N_c gauge theory only at strong coupling. In order to better understand how string theory could emerge from large N_c QCD at strong coupling, Klaus Bering, Joel Rozowsky, and I have developed an improved implementation of my effort of the late seventies to digitize the planar diagrams of large N_c light-cone quantized QCD by discretizing both P+ and…
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Taxonomy
TopicsParticle physics theoretical and experimental studies · Computational Physics and Python Applications · Black Holes and Theoretical Physics
