Gravitational Causal Inversion: A Unified Kinematic Model of the Dark Sector

Current standard models of Big Bang cosmology (ΛCDM) present Dark Energy and Dark Matter as separate phenomena that require distinct solutions, as established by the foundational observations of galactic rotation curves [1] and accelerating cosmic expansion [2]. This paper presents a unified explanation of the mysterious dark sector as a result of an interaction of two characteristically different dimensional branes, termed the Kinematic Causal Inversion (KCI) Model. I argue that our universe is currently experiencing a transit event with an orthogonal, parallel brane (“The Phantom Sector”). This sector possesses fundamentally distinct properties from our own; its dominant force is repulsive, or anti-gravitational. This results in a medium of uniform repulsive particles. While this transit event is occurring, the observational effects vary unintuitively when flowing unimpeded versus interacting with our baryonic matter. The interaction creates a condition allowing for the superluminal flow of particles, triggering a causal inversion. This mechanism is surprisingly derived by applying Bernoulli’s principle of fluid dynamics to this exotic repulsive particle fluid. This effectively inverts the gravitational interaction, creating the attractive force of Dark Matter. This paper accounts for the repulsive force observed in the cosmic voids and the attractive force observed in the galactic periphery by attributing both to a single kinematic mechanism. We are observing the boundary of Gravitational Causal Inversion triggered by the superluminal flow of particles in an intersecting orthogonal brane.