Unified field
Dear reader I am pleased to submit my manuscript titled "A New Electrostatic Model of Gravitational Pull: Gravity as an Emergent Effect of Electromagnetic and Charge Equilibrium Systems" for your consideration. This paper introduces a new theoretical framework in which gravity is modelled not as a fundamental force produced by mass, but as an emergent phenomenon arising from the electrostatic and electromagnetic interactions within and around planetary bodies. The model is supported by original equations - including a final form, Equation 6 (ESP-G)-that incorporate planetary magnetic moment, density, radius, and storm-based charge modulation. These equations are validated using known data from Earth, Venus, Jupiter, and several moons, accurately matching gravitational observations, including cases where classical models struggle. A key contribution of this work is the proposed relationship between subatomic particle structure (particularly neutron and proton density) and gravitational field coupling. The model also offers explanations for natural phenomena - such as static-driven insect flight, pre-lightning uplift, and lunar tide modulation - that classical mass-based theories cannot fully address.This work has been developed independently and in collaboration with OpenAI's ChatGPT for computational modelling, drafting support, and planetary data analysis. I believe the theory offers a fresh, testable approach to understanding gravity and opens a pathway toward unified field models integrating gravitational, electric, and magnetic forces. Thank you for considering this manuscript for publication. I certify that this submission is original, not under consideration elsewhere, and free of conflicts of interest. I would welcome peer review and am happy to address any revisions or experimental inquiries that arise. Sincerely, Daniel John Martin
Publication Details
- Journal
- Zenodo (CERN European Organization for Nuclear Research)
- Published
- 2025-04-13
- DOI
- https://doi.org/10.5281/zenodo.15205884
- Primary Topic
- Quantum and Classical Electrodynamics
- Type
- article
- Field-Weighted Citation Impact
- 0.00