455 Gravity Cannot Be Quantized

Bosley Zhang
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2026/09/24
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5 mins read
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Gravity Cannot Be Quantized


— Geometric Mismatch Between the Continuous Base Manifold and the Discrete Fiber Bundle


Author: Zhang Suhang

               Luoyang, Henan

 

Abstract


Historical attempts to rewrite gravity as a gauge theory, or to forcibly incorporate it into the renormalization framework of quantum field theory, have not yielded verifiable results. The mainstream physics community often attributes this dilemma to a lack of mathematical technique. This paper points out that the root of this predicament is not technical insufficiency, but rather an absolute mismatch of geometric hierarchy. The Yang-Mills equations and quantization are built upon fiber bundles and their discrete gauge groups, whereas gravity is rooted in the continuum of the base manifold (diffeomorphism and smooth metrics). Attempting to slice the continuous spacetime base manifold using discrete algebraic groups is the physical root cause of gravity quantization's dead end of non-renormalizability. Ontologically, gravity is continuous; therefore, gravity cannot be quantized. The grand unification of the four fundamental forces cannot rely on forcible insertion, but only on topological isomorphism.


Keywords: Gravity Quantization; Yang-Mills Equations; Fiber Bundle; Base Manifold; Discrete and Continuous; Geometric Position


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1 Introduction: Breaking the Ideological Steel Stamp of "Quantization"


Since the 20th century, an almost religious mindset has formed within the physics community: any fundamental interaction must ultimately be quantized.

Since electromagnetism, the weak force, and the strong force can all be quantized through the Yang-Mills gauge field theory and have achieved astonishing experimental precision (the Standard Model), why can't gravity?


Since Einstein's later years, physicists have successively attempted to find "gravitons," construct String Theory, or formulate Loop Quantum Gravity (LQG) in an attempt to force gravity into this framework. The results are invariably the same: either encountering mathematical infinities (non-renormalizability) or proposing higher-dimensional hypotheses that cannot be experimentally verified.


This paper makes a clear statement: Gravity cannot be quantized, not because physicists' mathematics is inadequate, but because gravity ontologically refuses to be discretized. This is a problem of mismatched geometric positions.


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2 The Fiber Bundle Model: The Hierarchy of Base and Fiber


The basic structure of a fiber bundle in differential geometry is:


P \to M 


Where:


· M (Base Manifold): The continuous and smooth spacetime background.

· P (Fiber Bundle): The additional internal structure (fiber) attached to each point of the base manifold.


This structure has two completely distinct physical hierarchies:


· Base Manifold M: Carries continuous coordinates, metrics, and topology.

· Fiber: Carries internal degrees of freedom, gauge transformations, and algebraic groups.


The base and the fiber are geometric objects located in completely different positions.


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3 The Discrete Fiber: The Foundation of Yang-Mills and Quantization


The core form of the Yang-Mills equation is:


\partial_\mu F^{\mu\nu} + [A_\mu, F^{\mu\nu}] = J^\nu 


Here, the connection A_\mu is defined on the principal fiber bundle, and the curvature F_{\mu\nu} is the field strength of this connection.

Gauge transformations act on the fiber degrees of freedom, while the base manifold M remains fixed.


Why can gauge fields be quantized? Because gauge groups (U(1), SU(2), SU(3)) grow on the fiber bundle. Mathematically, a group is a discrete algebraic structure. The essence of gauge forces is the discrete phase rotation of matter in internal space. It is this discrete algebraic gene that dictates that gauge fields must manifest as discrete, discontinuous quanta (such as photons and gluons) at the microscopic level.


Gauge forces grow on the discrete fiber.


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4 The Continuous Base Manifold: The Intrinsic Geometry of Gravity


The connection of gravity in General Relativity is the Levi-Civita connection.

It is defined directly on the spacetime manifold M itself, not on an additional fiber.


Gravity is described by the metric field g_{\mu\nu}. The transformation it satisfies is not a rotation of internal phase, but a diffeomorphism—that is, the continuous and smooth movement of spacetime coordinates.

Here, the base manifold M is not a fixed background, but the object being directly transformed. The curvature of gravity (Riemann tensor R^\rho_{\sigma\mu\nu}) describes the bending of continuous spacetime itself.


Gravity grows on the continuous base manifold.


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5 Similar Forms, Absolute Mismatch of Position and Ontology


Reviewing historical failed attempts, the starting point was the extreme similarity of two curvature formulas:


· Yang-Mills: F = dA + A \wedge A

· Riemann Geometry: R = d\Gamma + \Gamma \wedge \Gamma


The algebraic structures are almost identical, but what is similar is the form, not the ontology.


Comparison Item Yang-Mills (Gauge Forces) Riemannian Geometry (Gravity)

Geometric Position Principal Fiber Bundle (P) Base Manifold (M)

Transformation Object Internal discrete gauge group Continuous coordinate points of base manifold

Mathematical Ontology Discrete algebraic structure Continuous differential topology

Physical Attribute Quantizable (Discrete bosons) Refuses quantization (Continuous geometry)


Forcing gravity into quantum field theory is essentially attempting to slice and reconstruct the continuous spacetime base manifold using discrete algebraic groups. This ontological mismatch leads to the inevitable tearing of smooth spacetime into "quantum foam" by discrete mathematical operations at the Planck scale, thereby triggering infinite divergences (non-renormalizability).


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6 Conclusion: Grand Unification Requires Topological Isomorphism, Not Forcible Insertion


Gravity cannot be forced into the Yang-Mills equations, and gravity cannot be quantized.

This is not a regression in physics, but a return to geometric cognition in physics.


Since the discrete and the continuous are ontologically incompatible, how should the four forces be unified?

The key to breaking the deadlock does not lie in the microscopic maze of searching for "gravitons," but in the grand framework of "curvature topological isomorphism." The continuous curvature of the base manifold and the discrete gauge fields of the fiber bundle share the same mother equation in topology: \boldsymbol{F} = d\boldsymbol{A} + \boldsymbol{A} \wedge \boldsymbol{A}.


True unification does not require quantizing gravity. Instead, it requires introducing the eigenvalue \lambda as the exchange rate between the discrete and the continuous, unifying the continuous geometric precession of gravity and the discrete quantized precession of gauge forces within a dynamic chain from "curvature gradient \to geometric torque \to angular momentum precession."


The base manifold and the fiber bundle each follow their own paths, yet converge at the apex of topological curvature. This is the true Theory of Everything.


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References

(Omitted)


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創作於:2026/09/24,最後更新於:2026/11/08。
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