Path Integral Quantization of Generalized Stueckelberg Electrodynamics: A Faddeev-Jackiw Approach
arXiv:2312.00943 · doi:10.1016/j.nuclphysb.2023.116311
Abstract
We build a setup for path integral quantization through the Faddeev-Jackiw approach, extending it to include Grassmannian degrees of freedom, to be later implemented in a model of generalized electrodynamics that involves fourth-order derivatives in the components of a massive vector field being endowed with gauge freedom, due to an additional scalar field. Namely, the generalized Stueckelberg electrodynamics. In the first instance, we work on the free case to gain some familiarity with the program and, subsequently, we add the interaction with fermionic matter fields to complete our aim. In addition to deriving the correct classical brackets for such a model, we get the full expression for the associated generating functional and its associated integration measure.
References in corpus (19)
- The Stueckelberg Field
- Classical and quantum stability of higher-derivative dynamics
- Second Order Gauge Theory
- Path Integral Quantization of Generalized Quantum Electrodynamics
- Hamilton-Jacobi formalism for Podolsky's electromagnetic theory on the null-plane
- Renormalizability of generalized quantum electrodynamics
- Faddeev-Jackiw quantization and the path integral
- Reduction of order and Fadeev-Jackiw formalism in generalized electrodynamics
- Searching for Supersymmetry: The SSM
- Higher-derivative non-Abelian gauge fields via the Faddeev-Jackiw formalism
- Hamilton-Jacobi Approach for First Order Actions and Theories with Higher Derivatives
- Batalin-Fradkin-Vilkovisky quantization of the generalized scalar electrodynamics
- BRST symmetry and fictitious parameters
- Fermionic dark matter-photon quantum interaction: A mechanism for darkness
- Stable interactions between the extended Chern-Simons theory and a charged scalar field with higher derivatives: Hamiltonian formalism
- Reduced Order Podolsky Model
- Transition amplitude, partition function and the role of physical degrees of freedom in gauge theories
- Effective Lagrangian for Non-Abelian Two-Dimensional Topological Field Theory
- Bosonization of the continuum of Dirac Fermions