50 citations · 191 across the 6 of their papers we have counts for
6 papers
The quark induced Mueller-Tang jet impact factor at next-to-leading order
M. Hentschinski, J. D. Madrigal, B. Murdaca +1
We present the NLO corrections for the quark induced forward production of a jet with an associated rapidity gap. We make use of Lipatov's QCD high energy effective action to calcu…
The next-to-leading order vertex for a forward jet plus a rapidity gap at high energies
M. Hentschinski, J. D. Madrigal Martinez, B. Murdaca +1
We present the results for the calculation of the forward jet vertex associated to a rapidity gap (coupling of a hard pomeron to the jet) in the Balitsky-Fadin-Kuraev-Lipatov (BFKL…
High energy factorization at NLO: Lipatov's effective action revisited
G. Chachamis, M. Hentschinski, J. D. Madrigal +1
We discuss aspects of our recent derivation of the gluon Regge trajectory at two loop from Lipatov's high energy effective action. We show how the gluon Regge trajectory can be rig…
Gluon Regge trajectory at two loops from Lipatov's high energy effective action
G. Chachamis, M. Hentschinski, J. D. Madrigal +1
We present the derivation of the two-loop gluon Regge trajectory using Lipatov's high energy effective action and a direct evaluation of Feynman diagrams. Using a gauge invariant r…
NLO corrections to the gluon induced forward jet vertex from the high energy effective action
Grigorios Chachamis, Martin Hentschinski, Jose Daniel Madrigal +1
We determine both real and virtual next-to-leading order corrections to the gluon induced forward jet vertex, from the high energy effective action proposed by Lipatov. For these c…
Quark contribution to the gluon Regge trajectory at NLO from the high energy effective action
G. Chachamis, M. Hentschinski, J. D. Madrigal Martinez +1
The two loop (NLO) diagrams with quark content contributing to the gluon Regge trajectory are computed within the framework of Lipatov's effective action for QCD, using the regular…