Y. Ulrich

3 citations · 3 across the 1 of their papers we have counts for

collaborators

4 papers

hep-ph2026★ 3 cited

Disperon QED

Yizhou Fang, Sophie Kollatzsch, Marco Rocco +3

We present disperon QED, a method to deal with data input in loop processes in Monte Carlo codes. It relies on dispersion relations, automated tools such as OpenLoops, effective fi…

hep-ph2026

Low-energy $e^{+} e^{-} \to I^^{3} I^^{3}$ at NNLO in QED

Tim Engel, Marco Rocco, Adrian Signer +1

We present a fully differential computation of $e^{+} e^{-} \to I^^{3} I^^{3}$ at next-to-next-to-leading order in QED. The process has been implemented into McMule, completing its set of next…

hep-ph2025

Radiative corrections and Monte Carlo tools for low-energy hadronic cross sections in $e^{+} e^{-}$ collisions

Riccardo Aliberti, Paolo Beltrame, Ettore Budassi +32

We present the results of Phase I of an ongoing review of Monte Carlo tools relevant for low-energy hadronic cross sections. This includes a detailed comparison of Monte Carlo code…

hep-ph2025

McMule -- a Monte Carlo generator for low energy processes

Yannick Ulrich

McMule, a Monte Carlo for MUons and other LEptons, implements many major QED processes at NNLO (eg. $ee \to ee$ , $e I^¼ \to e I^¼$ , $ee \to I^¼ I^¼$ , $ℓ p \to ℓ p$ , $I^¼ \to I^½ I^ˉ ½ e$ ) incl…

Disperon QED

Low-energy e+e−→I^3I^3 at NNLO in QED

Radiative corrections and Monte Carlo tools for low-energy hadronic cross sections in e+e− collisions

McMule -- a Monte Carlo generator for low energy processes

Low-energy $e^{+} e^{-} \to I^^{3} I^^{3}$ at NNLO in QED

Radiative corrections and Monte Carlo tools for low-energy hadronic cross sections in $e^{+} e^{-}$ collisions