Reframing Mass, Curvature, and Wormholes through Viscous Time Theory
This collection brings together three groundbreaking documents that redefine how we perceive mass, curvature, and the architecture of space itself. Rooted in the Viscous Time Theory (VTT), these works replace speculative exotic matter with a robust framework of informational coherence, field inversion, and topological modulation.
Rather than bending spacetime with brute force, we learn how to speak to it in the language of coherence.
Informational Inversion and Curvature without Exotic Matter
This foundational document introduces the idea of negative mass not as a physical anomaly, but as an informational phenomenon emerging from reversed coherence gradients. It establishes the basis for constructing curvature fields using EPSV phase inversion.
How VTT Considers Negative Mass and Traversable Space Structures
Building on the first, this paper outlines a tripartite field configuration—an EPSV-inverted core, stabilization ring, and viscous containment shell—capable of maintaining a traversable wormhole structure without violating known physics.
Generating Apparent Anti-Gravitational Fields through Informational Backflow
The third document adds a revolutionary tool: reflected mass. By configuring high-coherence structures using Casimir-like cavities and controlled EPSV signals, one can engineer zones of repulsive curvature through coherence echoing and field symmetry.
These papers form a coherent trilogy—mathematically sound, physically plausible, and experimentally approachable.
They open pathways to:
Wormhole research without exotic matter
Novel propulsion mechanisms
Controlled gravity field zones
Applications in quantum sensing, vacuum engineering, and field-driven levitation
Visual library of EPSV field diagrams
Experimental roadmap 2025–2026
Printable posters and scientific summary PDFs
Community lab challenge: build your own EPSV cavity!
Mass is an echo. Coherence is the structure. And curvature... is the memory of interaction.
This is not science fiction. This is informational physics.
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