AbstractWe extend the generalized D-dimensional unitarity method for numerical evaluation of one-loop amplitudes by incorporating massive particles. The issues related to extending the spinor algebra to higher dimensions, treatment of external self-energy diagrams and mass renormalization are discussed within the context of the D-dimensional unitarity method. To validate our approach, we calculate in QCD the one-loop scattering amplitudes of a massive quark pair with up to three additional gluons for arbitrary spin states of the external quarks and gluons
We establish an efficient polynomial-complexity algorithm for one-loop calculations, based on genera...
We derive general tree-level recursion relations for amplitudes which include massive propagating pa...
We present an alternative reduction to master integrals for one-loop amplitudes using a unitarity cu...
AbstractWe extend the generalized D-dimensional unitarity method for numerical evaluation of one-loo...
We explain how one-loop amplitudes with massive fermions can be computed using only on-shell informa...
We present a method for the direct extraction of rational contributions to one-loop scattering ampli...
The unitarity method for calculating one-loop amplitudes provides algorithms of polynomial complexit...
Recent progress in unitarity techniques for one-loop scattering amplitudes makes a numerical impleme...
AbstractWe present a novel set of Feynman rules and generalised unitarity cut-conditions for computi...
We employ the recently developed method of generalized $D$-dimensional unitarity to compute one-loop...
We present formulas for the coefficients of 2-, 3-, 4- and 5-point master integrals for one-loop mas...
We establish an efficient polynomial-complexity algorithm for one-loop calculations, based on genera...
We present formulas for the coefficients of 2-, 3-, 4- and 5-point master integrals for one-loop mas...
The large amount of new high energy data being collected by the LHC experiments has the potential t...
Elaborating on the four-dimensional helicity scheme, we propose a pure four-dimensional formulation ...
We establish an efficient polynomial-complexity algorithm for one-loop calculations, based on genera...
We derive general tree-level recursion relations for amplitudes which include massive propagating pa...
We present an alternative reduction to master integrals for one-loop amplitudes using a unitarity cu...
AbstractWe extend the generalized D-dimensional unitarity method for numerical evaluation of one-loo...
We explain how one-loop amplitudes with massive fermions can be computed using only on-shell informa...
We present a method for the direct extraction of rational contributions to one-loop scattering ampli...
The unitarity method for calculating one-loop amplitudes provides algorithms of polynomial complexit...
Recent progress in unitarity techniques for one-loop scattering amplitudes makes a numerical impleme...
AbstractWe present a novel set of Feynman rules and generalised unitarity cut-conditions for computi...
We employ the recently developed method of generalized $D$-dimensional unitarity to compute one-loop...
We present formulas for the coefficients of 2-, 3-, 4- and 5-point master integrals for one-loop mas...
We establish an efficient polynomial-complexity algorithm for one-loop calculations, based on genera...
We present formulas for the coefficients of 2-, 3-, 4- and 5-point master integrals for one-loop mas...
The large amount of new high energy data being collected by the LHC experiments has the potential t...
Elaborating on the four-dimensional helicity scheme, we propose a pure four-dimensional formulation ...
We establish an efficient polynomial-complexity algorithm for one-loop calculations, based on genera...
We derive general tree-level recursion relations for amplitudes which include massive propagating pa...
We present an alternative reduction to master integrals for one-loop amplitudes using a unitarity cu...