Gauge symmetries and the Higgs mechanism in Quantum Finance
arXiv:2306.03237 · doi:10.1209/0295-5075/acedce
Abstract
By using the Hamiltonian formulation, we demonstrate that the Merton-Garman equation emerges naturally from the Black-Scholes equation after imposing invariance (symmetry) under local (gauge) transformations over changes in the stock price. This is the case because imposing gauge symmetry implies the appearance of an additional field, which corresponds to the stochastic volatility. The gauge symmetry then imposes some constraints over the free-parameters of the Merton-Garman Hamiltonian. Finally, we analyze how the stochastic volatility gets massive dynamically via Higgs mechanism.
arXiv comment6 pages
References in corpus (14)
- Spontaneous Symmetry Breaking and Nambu-Goldstone Bosons in Quantum Many-Body Systems
- On the Black Holes in alternative theories of gravity: The case of non-linear massive gravity
- The Astrophysical Scales Set by the Cosmological Constant, Black-Hole Thermodynamics and Non-Linear Massive Gravity
- The Quantum Yang Baxter conditions: The fundamental relations behind the Nambu-Goldstone theorem
- The Nambu-Goldstone theorem in non-relativistic systems
- Spontaneous symmetry breaking in Quantum Finance
- The origin of the mass of the Nambu-Goldstone bosons
- The graviton Higgs mechanism
- Non linear massive gravity as a gravitational -model
- The probability flow in the Stock market and Spontaneous symmetry breaking in Quantum Finance
- 5-D thermal field theory, Einstein field equations and spontaneous symmetry breaking
- The dynamical origin of the graviton mass in the non-linear theory of massive gravity
- Geometry, quantum correlations, and phase transitions in the -atomic configuration
- The counting of Nambu-Goldstone bosons in a non-Hermitian field theory