QCD Radiative Corrections to Higgs Physics
Taushif Ahmed

TL;DR
This thesis provides high-precision QCD radiative correction calculations at N$^{3}$LO for Higgs boson production channels, including scalar and pseudo-scalar types, enhancing the accuracy of theoretical predictions for LHC experiments.
Contribution
It presents the first analytical N$^{3}$LO QCD corrections for Higgs production via bottom quark annihilation and pseudo-scalar Higgs, under the soft-virtual approximation, improving theoretical precision.
Findings
Computed N$^{3}$LO soft-virtual corrections for Higgs production channels.
Reduced theoretical uncertainties in Higgs cross section predictions.
Enhanced accuracy for differential rapidity distributions at the LHC.
Abstract
The central part of this thesis deals with the quantum chromodynamics (QCD) radiative corrections to some important observables associated with the Drell-Yan, scalar and pseudo-scalar Higgs boson productions at next-to-next-to-next-to-leading order (NLO) aiming to uplift the accuracy of theoretical results. The Higgs bosons are produced dominantly at the Large Hadron Collider (LHC) via gluon fusion through top quark loop, while one of the subdominant ones takes place through bottom quark annihilation whose contribution is equally important and must be included in precision studies. Here, we have computed analytically the inclusive cross section of the Higgs boson produced through this channel under the soft-virtual (SV) approximation at NLO QCD following an elegant formalism. Moreover, the differential rapidity distribution is another most important observable, which is…
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Taxonomy
TopicsParticle physics theoretical and experimental studies · Distributed and Parallel Computing Systems · High-Energy Particle Collisions Research
