This paper proposes Holographic Cyclic Cosmology (HCC), extending previous work (Fearnley, 2016; Fearnley, 2018). We introduce a mechanism using the sampling mechanics of the Rasch ratio-scale model to explain spacetime metric collapses and cyclic crossovers without requiring Penrose’s zero-mass particles or exact conformal scaling laws. By applying ’t Hooft’s (2022) quantum cloning paradigm, incoming high-entropy matter is compressed and transported across 2D black hole boundaries without encountering localized internal singularities or relying on unstable Einstein-Rosen bridges. The resulting antipodal transport forces a global temporal inversion (τ  -τ). When these pure, low-entropy clones exit into fractured, low-density cosmic sinks—functioning as pseudo-white holes—their structures operate retrocausally. To a forward-in-time observer, this inversion causes the particles to manifest macroscopically as a physical fluid with negative mass (-m). This process establishes a self-sustaining cosmological feedback engine that continuously repopulates empty space, driving accelerated dark energy expansion via runaway acceleration as modelled by Farnes (2018) and Fearnley (2018), ultimately directing the universe toward a multi-node, reheating-free cyclic crossover observable possibly as early "Little Red Dots".