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Does Gravity Cause Reality? Quantum Measurement, Spacetime Curvature, and a Shocking New Path Toward a Theory of Everything

Ijaz Durrani

Published Jan 1, 2026• 0 citations
Publisher
DOI
10.13140/rg.2.2.13939.28966

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Abstract In general relativity, the dynamics of objects is governed by the curvature of spacetime, which is caused by the presence of matter and energy. In contrast, in quantum mechanics, the dynamics is governed by the wavefunction, which completely describes the behavior of the particles. There is an ongoing effort to explore analogs of space and spacetime curvature in the context of quantum mechanics. Such analogies may reveal a deeper structure of quantum reality and its possible relations with Einstein’s theory of gravity. In this note, by coupling the non-relativistic Schrödinger equation with the heat equation and using the hydrodynamical formulation of quantum mechanics, we find that the dynamics of the particle is fully characterized by the normalized curvature of the wavefunction’s amplitude. Such a curvature obtains an analogy to the Ricci curvature of curved space in a Riemannian manifold. The proposed geometric correspondence provides a new pathway to explore quantum dynamics through the lens of differential geometry, the language of general relativity.
In my paper, "Positive 8th Dimension Atomic Average Path Processing," I present a critical component of the Colorless King Dimensional Model (CKDM), which serves as a comprehensive final theory of everything. The CKDM framework categorizes dimensions from negative 4 to 0 as ontological, while dimensions +1 through +16 define atomic characteristics. The primary objective of this specific text is to address a fundamental question in physics: at what point do quantum mechanical effects transition into observable classical physical phenomena? To approach this, my theoretical foundation relies on a strict hierarchy of scientific evidence that prioritizes physical observation, repeated experimentation, and logical conclusions above pure mathematical equations. I argue that modern physics has fundamentally erred by allowing mathematical abstraction to supersede observable reality, a flaw present in the unquestioned acceptance of paradigms like general relativity and the classical concept of momentum. Instead, my model constructs a hierarchy where Information Physics serves as the foundation, Quantum Physics acts as the physics of machine detection, and Classical Physics represents human intuition and observation. Building upon my Positive 7th Dimension theory, which establishes that electrons engage in "Atomic Parallel Path Processing" to cycle through available atomic paths to find the most compatible route, the 8th Dimension theory explains the quantum-to-classical bridge. I propose that classical reality emerges simply when we stop counting every single discrete quantum interaction and instead measure the statistical average of these interactions. Consequently, I posit that magnetism and gravity are inherently the same physical mechanism, governed by atomic interactions and what I define as "residual pull" after atomic bonding is complete. To demonstrate this, I introduce the "Colorless King Curie motor effect," which utilizes thermal distribution and magnetic fields to explain orbital mechanics without the need for traditional momentum . I argue that momentum is an illusion masking the true quantum mechanical push and pull of reality. Instead, celestial bodies maintain their orbits through a balance of electromagnetic forces. The high-energy, sun-facing sides of planets experience a magnetic "push," while the cooler, dark sides experience a magnetic "pull," creating a stabilizing dynamic that prevents planetary collision while simultaneously driving axial rotation. Finally, a core assertion of my paper highlights the critical misunderstanding of "machine detection limits" in modern science. Devices used to measure gravity do not detect smooth spacetime curvature; they measure an average acceleration that is constantly skewed by solar resistance on the day side and magnetic stretching on the night side. By analyzing magnetosphere boundary data and the fluctuations recorded by highly sensitive superconducting gravimeters, I demonstrate that gravity is not a constant, smooth geometry. Rather, it is the classical, average macroscopic manifestation of trillions of discrete, jittery electromagnetic interactions occurring at the quantum level.
General relativity predicts spacetime singularities where curvature diverges, while quantummechanics describes a probabilistic reality. We propose a model that unifies these domains bypositing that spacetime curvature is an emergent property of quantum state reduction. Themodel is based on a Collapse-Curvature Correspondence: R = −8πGρC , where the Ricciscalar R is proportional to the local collapse density ρC , defined as the rate of quantum-to-classical transitions. We argue that in causally isolated regions—such as black hole coresor the pre-Big Bang state—no measurement-induced collapse can occur, forcing ρC = 0 andconsequently R = 0. This naturally resolves curvature singularities without requiring quantumgravity. The framework reinterprets gravity as the geometric record of quantum actualizationand time as a procedural variable emerging from collapse progression, dτ = k dC. The modelis falsifiable through its unique predictions for experiments like BMV/QGEM, which shoulddetect no gravity-mediated entanglement prior to collapse.