Author: SAMUELSON G Research Area: Quantum Gravity, Atomic Physics, Quantum Coherence, Theoretical Physics Proposed Framework: Atomic Modular Coherence Gravity (AMCG)
This repository contains a research paper on Quantum Gravity at the Atomic Level using various quantum methods to explore a possible new form of quantum gravity distinct from classical Einsteinian gravity.
The study proposes a theoretical framework called Atomic Modular Coherence Gravity (AMCG). This framework investigates whether gravity-like interactions may arise not only from mass-energy, as described in Einstein’s general relativity, but also from quantum coherence, atomic-scale phase relations, and modular quantum structures.
The paper is intended as a speculative theoretical research work and a starting point for further mathematical development, peer review, and experimental testing.
Quantum Gravity at the Atomic Level Using Various Quantum Methods to Find a New Quantum-Gravitational Interaction Beyond Einsteinian Gravity
Quantum gravity remains one of the most important unsolved problems in modern physics. General relativity successfully describes gravity at astronomical and cosmological scales, while quantum mechanics governs atomic and subatomic systems. However, these two frameworks remain difficult to unify.
This research explores the possibility that gravity at the atomic level may contain additional quantum-dependent components that are not visible in classical gravitational theory. The proposed AMCG model introduces the idea that quantum coherence, atomic superposition, and modular phase structures may contribute to measurable gravity-like effects under carefully controlled quantum conditions.
The paper discusses theoretical foundations, possible mathematical structures, experimental platforms, and testable predictions using atom interferometry, optical clocks, trapped ions, and optomechanical systems.
Quantum gravity, atomic gravity, quantum coherence, general relativity, quantum mechanics, atom interferometry, optical clocks, trapped ions, optomechanics, AMCG, coherence gravity, theoretical physics
| File / Folder | Description |
|---|---|
paper/ |
Final research paper manuscript |
figures/ |
Clear figures used in the paper |
tables/ |
Research tables and comparative data |
references/ |
Bibliographic reference material |
README.md |
Project overview and research summary |
The main objectives of this research are:
- To examine whether gravity at the atomic level may involve quantum coherence-dependent effects.
- To propose a theoretical framework beyond classical mass-only gravitational interaction.
- To compare possible quantum methods for detecting atomic-scale gravitational deviations.
- To identify experimental platforms that may test the proposed model.
- To provide a publishable research-paper structure with declarations, figures, tables, and references.
The proposed AMCG framework assumes that atomic-scale gravity may depend on both:
- Mass density, which is the standard gravitational source in classical physics.
- Quantum coherence structure, which may influence phase-sensitive gravitational interactions in highly controlled quantum systems.
In this model, coherent quantum matter may produce additional interaction terms that disappear when the system becomes decohered. This makes the proposed effect different from ordinary Newtonian gravity and different from the classical spacetime curvature model of general relativity.
The paper includes the following figures:
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Figure 1. Conceptual Structure of Atomic Modular Coherence Gravity
- Shows how mass density and quantum coherence may couple through a proposed quantum mediator field.
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Figure 2. AMCG Direct Mass-Sector Yukawa Sensitivity
- Shows possible sensitivity estimates for detecting short-range gravitational modifications.
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Figure 3. AMCG Coherence-Charge Sensitivity
- Shows possible coherence-dependent detection limits for atomic and quantum platforms.
The paper includes the following tables:
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Table 1. Comparative Quantum Methods Used in Atomic Modular Coherence Gravity
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Table 2. Experimental Platforms, Benchmarks, AMCG Observables, and Illustrative Sensitivity Reach
The proposed framework may be studied using:
- Atom interferometry
- Optical lattice clocks
- Trapped-ion systems
- Levitated optomechanics
- Bose-Einstein condensates
- Quantum sensors
- Ramsey spectroscopy
- Coherent many-body atomic systems
These systems are useful because they can detect extremely small phase shifts, forces, and frequency changes.
This research is important because it attempts to address the gap between quantum mechanics and gravity. If atomic-level coherence-dependent gravitational effects exist, they could provide a new route toward understanding quantum gravity.
However, the AMCG model should be treated as a theoretical proposal until it is supported by strong mathematical derivation and experimental evidence.
This research has several limitations:
- The AMCG model is hypothetical.
- Experimental verification has not yet been performed.
- The theory requires further mathematical development.
- Predictions must be compared with existing tests of gravity, quantum mechanics, and equivalence-principle experiments.
- Any new theory must reduce to known gravitational physics under classical conditions.
This research paper presents a speculative theoretical approach to quantum gravity at the atomic level through the proposed Atomic Modular Coherence Gravity framework. The central idea is that gravity-like interactions at microscopic scales may depend not only on mass-energy but also on quantum coherence and phase structure.
The proposed framework suggests that coherent atomic systems may exhibit additional phase-sensitive gravitational effects that are absent in decohered matter. This makes AMCG a possible candidate for exploring new quantum-gravitational behavior beyond the standard classical interpretation of gravity.
The study identifies atom interferometry, optical clocks, trapped ions, and optomechanical systems as promising experimental platforms for testing such ideas. Although the theory remains unproven, it provides a structured foundation for future research, mathematical refinement, and experimental investigation.
In conclusion, AMCG should be understood as a theoretical research proposal rather than an established physical law. Its value lies in offering a testable direction for studying whether quantum coherence can play a direct role in gravity at atomic scales.
The author declares that this work is a theoretical research study prepared for academic and exploratory purposes.
The author declares no conflict of interest.
No external funding was received for this research.
No experimental dataset was generated. All theoretical calculations, figures, and tables are included in the manuscript or repository.
This study does not involve human participants, animals, clinical trials, or private personal data.
SAMUELSON G. Quantum Gravity at the Atomic Level Using Various Quantum Methods to Find a New Quantum-Gravitational Interaction Beyond Einsteinian Gravity. Independent Research Manuscript.
This repository may be released under the Creative Commons Attribution 4.0 International License (CC BY 4.0) for the paper and figures.
For code or computational notebooks, the MIT License may be used.
Before submitting this research paper to a preprint server or journal:
- Convert the manuscript into proper LaTeX or journal format.
- Check all mathematical equations carefully.
- Add verified references in a consistent citation style.
- Clearly state that the theory is hypothetical.
- Avoid claiming experimental proof unless real experimental data is available.
- Use the correct phrase Einstein’s general relativity, not Einstein’s special relativity, when referring to gravity.
SAMUELSON G Independent Researcher Research Interest: Quantum Gravity, Atomic Physics, Theoretical Physics, Quantum Methods