GNTS FRAMEWORK Gravitational Neobit Temporal Structure
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| Natura: | Recurso digital |
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Zenodo
2026
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| _version_ | 1866901064732639232 |
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| author | Mutair, Khaled |
| author_facet | Mutair, Khaled |
| contents | <div> <p dir="RTL"><span dir="LTR">The Gravitational Neobit Temporal Structure (GNTS) is a self-contained theoretical framework that determines the local rate of time Z(x) at any point in space using only directly measurable mechanical quantities: gravitational acceleration g(x), distance from the gravitational center r(x), the field stiffness gradient κ(x), and the kinetic energy of motion E_dynamic(x). The framework derives the propagation speed c(x) internally from field wave properties, and independently derives the dynamic coupling constant α = 2 from the balance condition of a wave field. Applied to GPS satellite clock correction, GNTS produces a result of +37.1 μs/day (compared to the empirically measured +38.4 μs/day), a discrepancy of 3.4%. With a single calibration constant ε = 0.209, the framework achieves exact agreement. Critically, no quantity, constant, or derivation is borrowed from Special or General Relativity. All inputs are obtainable from gravimeters, laser ranging, and Doppler measurements alone.</span></p> </div> |
| format | Recurso digital |
| id | zenodo_https___doi_org_10_5281_zenodo_18937822 |
| institution | Zenodo |
| language | |
| publishDate | 2026 |
| publisher | Zenodo |
| record_format | zenodo |
| spellingShingle | GNTS FRAMEWORK Gravitational Neobit Temporal Structure Mutair, Khaled <div> <p dir="RTL"><span dir="LTR">The Gravitational Neobit Temporal Structure (GNTS) is a self-contained theoretical framework that determines the local rate of time Z(x) at any point in space using only directly measurable mechanical quantities: gravitational acceleration g(x), distance from the gravitational center r(x), the field stiffness gradient κ(x), and the kinetic energy of motion E_dynamic(x). The framework derives the propagation speed c(x) internally from field wave properties, and independently derives the dynamic coupling constant α = 2 from the balance condition of a wave field. Applied to GPS satellite clock correction, GNTS produces a result of +37.1 μs/day (compared to the empirically measured +38.4 μs/day), a discrepancy of 3.4%. With a single calibration constant ε = 0.209, the framework achieves exact agreement. Critically, no quantity, constant, or derivation is borrowed from Special or General Relativity. All inputs are obtainable from gravimeters, laser ranging, and Doppler measurements alone.</span></p> </div> |
| title | GNTS FRAMEWORK Gravitational Neobit Temporal Structure |
| url | https://doi.org/10.5281/zenodo.18937822 |