Simulation Reveals 'Metric Wall' of Spacetime
A new computational simulation of the early universe has revealed a fundamental geometric limit to spacetime, which researcher Raghu Kulkarni has named the "Metric Wall." The discovery, made by the CEO of IDrive Inc., proposes a unifying theory for black hole mechanics, quantum collapse, and the Big Bang. The research suggests this limit is an unbreakable property of the universe's fabric.
- The "Metric Wall" is a specific kinematic floor discovered in the simulation where spacetime nodes cannot be compressed past a ratio of 1/√3 times the fundamental "stitch length" of the universe's fabric. - This research is based on the "Selection-Stitch Model" (SSM), which models the vacuum of space as a discrete quantum tensor network, essentially treating 3D space as a holographic projection of 2D sheets. - The model proposes a specific mass for quantum collapse, calculating that an object's mass stretches the local vacuum, and at exactly 28 micrograms, this tension hits the "Metric Wall," causing the quantum wave to collapse. - Instead of an infinitely dense singularity inside a black hole, the simulation shows that extreme gravity halts at the Metric Wall, forcing the kinetic energy of a merger to be shunted into the 2D boundaries, resulting in a universal 7.13% geometric area inflation for all black hole horizons. - The research was conducted by Raghu Kulkarni, who founded the cloud backup company IDrive Inc. (originally as Pro Softnet Corporation) in 1995 and serves as its CEO. - The model also claims to derive the ratio of dark matter to ordinary matter from the geometry of the vacuum lattice, suggesting a 5:1 ratio of "slipped" knots (Dark Matter) to anchored knots (normal matter). - A series of theoretical papers based on the simulation's findings are currently undergoing peer review, and the open-source simulation code has been made available to the public.
