The deeply entrenched dichotomy between General Relativity, governing the macroscopic universe, and Quantum Mechanics, governing the microscopic realm, remains the most profound barrier to a unified theory of physics. For nearly a century, theoretical frameworks have attempted to bridge this divide, yet the incompatibility reaches its undeniable apex at the center of a black hole. In this extreme environment, the continuous spacetime curvature predicted by Einstein’s field equations terminates in a non-physical mathematical singularity, causing a fundamental breakdown in predictive physics. Traditional attempts to resolve this—such as string theory, canonical quantization, and loop quantum gravity pursued by leading institutions like the Max Planck Institute for Gravitational Physics—often rely on the introduction of higher spatial dimensions or the assumption of a fundamental spatial floor, such as the Planck length.1 However, the Infinite Fractal Descent (IFD) cosmology, formalized by Enkhamgalan Nasanjargal in 2026, proposes a radical departure from these standard models.2 By formally discarding the assumption of a finite spatial floor, the IFD framework establishes a strictly deterministic, scale-invariant thermodynamic engine driven by a universal spatial compression ratio of .