Faster than light: Difference between revisions

    Concept: The speed of light (cc) in the aether model is determined by the density and rigidity of the lattice. By locally modifying these properties, the effective speed of light could be increased.

    Mechanism:

        Create a region of lower lattice density or rigidity ahead of the spacecraft, effectively "softening" the lattice.

        Light and energy waves travel faster through this less rigid region, and the spacecraft could ride this modified lattice, moving faster relative to the surrounding unaltered lattice.

    Implication: This would be analogous to creating a "waveguide" through the lattice, allowing superluminal travel without breaking local causality.

    Concept: Just as quantum tunneling allows particles to "jump" through potential barriers without traversing the space in between, discontinuities (representing particles or objects) might "tunnel" through the lattice.

    Mechanism:

        Exploit lattice instabilities to create a direct path between two points, bypassing the intervening lattice structure.

        This would require inducing and stabilizing lattice discontinuities along the path, essentially forming a shortcut.

    Implication: The spacecraft wouldn't need to traverse the distance conventionally but would appear to "teleport" across vast distances.

    Concept: Generate high-energy compression waves in the lattice to form a "warp bubble" that moves the lattice itself.

    Mechanism:

        Inside the bubble, the lattice remains stable, while outside, the lattice distortion propagates faster than the normal speed of light.

        The spacecraft is carried within the stable region, effectively bypassing the speed limitation of light in the unaltered lattice.

    Analogy: Similar to the Alcubierre warp drive, but the "bubble" in this case is a dynamic feature of the lattice itself rather than spacetime fabric.

    Concept: The lattice allows for discontinuities (particles or energy) to "hop" from one point to another without existing in intermediate states.

    Mechanism:

        Utilize engineered discontinuities to bridge distant lattice nodes.

        Discontinuities align and "jump" between points based on lattice equilibrium, effectively allowing FTL traversal.

    Implication: This could mimic quantum entanglement but on a macroscopic scale, leveraging lattice dynamics to enable FTL travel.

    Concept: Wormholes in the aether model would be regions of lattice distortion that connect two distant points directly.

    Mechanism:

        Induce a large-scale, stable lattice distortion to form a continuous "path" between distant regions.

        The lattice geometry at these points would need to align to prevent collapse and maintain the connection.

    Implication: This bypasses conventional distance, with the lattice acting as the conduit.

    Energy Requirements:

    Modifying the lattice on a large scale would likely require significant energy. Advanced energy systems would be necessary to generate, sustain, and control the required distortions.

    Stability:

    Maintaining the stability of the modified lattice regions or discontinuities is critical to prevent catastrophic collapse.

    Experimental Evidence:

        Investigate localized lattice manipulation effects, such as using high-frequency oscillations to alter light speed or create discontinuities.

        Search for naturally occurring FTL phenomena in astrophysical contexts, such as anomalous gamma-ray bursts or gravitational wave propagation.

    Unlike traditional physics, which forbids FTL travel under relativity, the aether lattice model provides multiple avenues for exceeding light speed without breaking causality or energy conservation laws.

    The model reframes FTL as interactions with a physical substrate (the lattice), providing tangible mechanisms for experimentation and validation.