Holomorphic Unified Field Theory of Gravity and the Standard Model

TL;DR

This paper introduces a holomorphic geometric framework unifying gravity, gauge interactions, and fermions into a single theory, reproducing the Standard Model and Einstein's equations from a complex manifold perspective.

Contribution

It presents a novel holomorphic geometric approach that unifies gravity, gauge fields, and fermions, providing a classical and quantum consistent model.

Findings

Reproduces Einstein's equations and Maxwell's equations from a holomorphic metric.

Encodes all gauge sectors in a single holomorphic connection, ensuring anomaly cancellation.

Unifies Standard Model particles and interactions within a geometric holomorphic framework.

Abstract

We present a holomorphic framework in which gravity, gauge interactions, and their couplings to charges and currents emerge from a single geometric action on a four-complex-dimensional manifold. The Hermitian metric yields on the real slice $y^\mu = 0$, a real symmetric metric $g_{(\mu \nu)}$ giving the vacuum Einstein equations, and an antisymmetric part $g_{[\mu \nu]}$ that reproduces Maxwell's equations with sources. A single holomorphic gauge connection for $G_{\text{GUT}}$, such as $SU(5)$ or $SO(10)$, encodes all gauge sectors; its Bianchi identities give homogeneous Yang--Mills equations, and variation imposes $\nabla_\mu F^{\mu \nu}_A = J^\nu_A$. Chiral fermions arise from a holomorphic Dirac Lagrangian and couple minimally to all gauge fields, reproducing the Standard Model spectrum. Anomaly cancellation follows from holomorphic gauge invariance. A holomorphic adjoint Higgs breaks $G_{\text{GUT}} \rightarrow SU(3) \times SU(2) \times U(1)$ with unified coupling, and a second Higgs breaks electroweak symmetry, generating $W^\pm$, $Z$, and fermion masses. Below the unification scale, couplings run by standard renormalization-group flow. This construction unifies Einstein gravity, Yang--Mills theory, electromagnetism, and chiral fermions into a single classical geometric framework, and admits quantization via a holomorphic path integral that reproduces standard Feynman rules.