Chapter 16 (Warp Drives)
This paper presents Chapter 16 of the foundational treatise "THE MECHANICAL CLOCKWORK: A Geometric and Causal Foundation for Unified Physics." This standalone chapter delivers a rigorous, non-singular fluid-mechanical alternative to classical warp drive metrics (such as the Alcubierre metric) within the framework of the Universmodel, developed by Ole Ronny Kvestad. While standard general relativity requires hypothetical "exotic matter" with negative mass-energy to distort space, the Universmodel completely bypasses this theoretical barrier. By replacing the abstraction of a space fabric with a continuous, highly elastic Background Field, superluminal transport and propulsion are achieved through Asymmetric Field Tapping—the engineered generation of a fluid pressure differential within the medium. Key Mechanical Mechanics Derived in this Chapter:1. The Principle of Pressure Asymmetry: Utilizing focused electromagnetic torsion waves forward to lower the background medium's local reservoir pressure (P_front < P_0), transforming the master field gradient (nabla rho_f) into a directional, negative driving force.2. Propulsion via Elastic Snap: The ship is passively swept forward enclosed inside a self-contained fluid bubble, driven by the background field's high baseline hydrostatic pressure closing the vacuum breach behind the vessel.3. Total Elimination of G-Forces and Time Dilation: Because there is no relative velocity difference between the ship's localized atoms and the enclosing medium bubble hosting them, kinematic stress (G-force) is zero. Furthermore, internal atomic coordinates suffer no energy taxation, allowing internal clocks to tick at 100% maximum local speed, removing the paradox of interstellar time travel. The attached manuscript includes the full theoretical breakdown and the explicit mathematical verification of the Asymmetric Propulsive Tensor.
Authors
- Ole Ronny Kvestad
Publication Details
- Journal
- Zenodo (CERN European Organization for Nuclear Research)
- Published
- 2026-09-11
- DOI
- https://doi.org/10.5281/zenodo.22709043
- Primary Topic
- Fluid dynamics and aerodynamics studies
- Type
- preprint