Abstract

Strong, electromagnetic, and weak forces were unified in the Standard Model (SM) with spontaneous gauge symmetry breaking. These forces were further conjectured to be unified in a simple Lie group gauge interaction in the Grand Unification (GUT). In this work, we propose a theory beyond the SM and GUT by adding new gapped Topological Phase Sectors consistent with the nonperturbative global anomaly cancellation and cobordism constraints (especially from the baryon minus lepton number ${\bf B}-{\bf L}$, the electroweak hypercharge $Y$, and the mixed gauge-gravitational anomaly). Gapped Topological Phase Sectors are constructed via symmetry extension, whose low energy contains unitary Lorentz invariant topological quantum field theories (TQFTs): either 3+1d non-invertible TQFT, or 4+1d invertible or non-invertible TQFT (short-range or long-range entangled gapped phase). Alternatively, there could also be right-handed "sterile" neutrinos, gapless unparticle physics, more general interacting conformal field theories, or gravity with topological cobordism constraints, or their combinations to altogether cancel the mixed gauge-gravitational anomaly. We propose that a new high-energy physics frontier beyond the conventional 0d particle physics relies on the new Topological Force and Topological Matter including gapped extended objects (gapped 1d line and 2d surface operators or defects, etc., whose open ends carry deconfined fractionalized particle or anyonic string excitations) or gapless conformal matter. Physical characterizations of these gapped extended objects require the mathematical theories of cohomology, cobordism, or category. Although weaker than the weak force, Topological Force is infinite-range or long-range which does not decay in the distance, and mediates between the linked worldvolume trajectories via fractional or categorical statistical interactions.

Highlights

  • AND SUMMARYUnification is a central theme in theoretical physics

  • Follow our previous investigations based on nonperturbative global anomalies and cobordism constraints [8,9,10],1 we propose an ultra unification that a new topological force comes into a theme of unification joining with three known fundamental forces and other hypothetical grand unified theory (GUT) forces. (See Fig. 1.) More concretely, there is a new gapped

  • Based on the anomaly cancellation and cobordism constraints, we propose that the Standard Model (SM) and Georgi-Glashow SU(5) GUT contains a new hidden sector that can be a linear combination of above scenarios [9,10]

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Summary

INTRODUCTION

Unification is a central theme in theoretical physics. From 1864–1865, Maxwell [1] unified the electricity and magnetism into the electrodynamics theory, where the derived electromagnetic wave manifests the light phenomena. Follow our previous investigations based on nonperturbative global anomalies and cobordism constraints [8,9,10],1 we propose an ultra unification that a new topological force comes into a theme of unification joining with three known fundamental forces and other hypothetical GUT forces. Ultra unification should be viewed as an effective field theory which contains SM and GUT and additional gapped topological phase sectors with low energy Lorentz invariant unitarytopologicalquantumfieldtheories (TQFTs)of Schwarz type (which is the 4D analog of the 3D Chern-SimonsWitten theories [28,29,30]). Topological force and the gapped topological phase sector here have specific physical and mathematical meanings, which we will clarify in Sec. II F.

Assumptions
Anomaly and cobordism constraints
Standard models
Georgi-Glashow suð5Þ grand unification
Consequences lead to ultra unification
Consequences
Symmetry breaking vs symmetry extension
Topological phase sector and topological force
ULTRA UNIFICATION PATH INTEGRAL
Standard Model path integral coupled to X
The suð5Þ grand unification path integral coupled to X
General principle
Detect Topological Forces
Neutrino oscillations and dark matter
The essence of ultra unification
Summary of ultra unification and quantum matter

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