How the Higgs potential got its shape

DOI10.1016/j.nuclphysb.2023.116109OpenAlexW4319334886MaRDI QIDQ2687650

Jens Mund, Karl-Henning Rehren, Bert Schroer

Publication date: 7 March 2023

Published in: Nuclear Physics. B (Search for Journal in Brave)

Full work available at URL: https://arxiv.org/abs/2209.06133

Mathematics Subject Classification ID

Quantum theory (81-XX) Relativity and gravitational theory (83-XX)

Related Items (4)

String-localized free vector and tensor potentials for massive particles with any spin. I: Bosons ⋮ Quantum general covariance ⋮ The chirality theorem ⋮ Infraparticle quantum fields and the formation of photon clouds

Cites Work

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• Comparing the \(R_{\xi}\) gauge and the unitary gauge for the standard model: an example
• An alternative to the gauge theoretic setting
• String-localized quantum fields and modular localization
• Helicity decoupling in the massless limit of massive tensor fields
• From classical field theory to perturbative quantum field theory
• The chirality theorem
• Infraparticle quantum fields and the formation of photon clouds
• Gauss' law and string-localized quantum field theory
• The master Ward identity for scalar QED
• The role of positivity and causality in interactions involving higher spin
• Zero-mass infinite spin representations of the Poincaré group and quantum field theory
• Renormalization in string-localized field theories: a microlocal analysis
• THE STUECKELBERG FIELD
• On gauge invariance and spontaneous symmetry breaking
• THE MASTER WARD IDENTITY
• NON-ABELIAN GAUGE THEORIES AS A CONSEQUENCE OF PERTURBATIVE QUANTUM GAUGE INVARIANCE

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