Binary Null Well Mergers

Binary Null Well Mergers are collisions of two Null Wells that, in the book's account, can seed a new universe; such a universe inherits Compressed Harmonic Scaling from the spin energy and gravitational-wave interference the merger injects, and so runs on a shorter Pulse Diameter than one born from a single collapse. A Null Well is what contemporary physics calls a black hole. Pulse Diameter Variability shows, for the book, that fundamental temporal scaling depends on Null Well mass, spin and topology at the moment of Prime Pulse Bifurcation. A merger-seeded universe has a shorter local Pulse Tempo, a faster clock, than a single Schwarzschild-derived domain, the exception to the rule that children pulse more slowly, and the book reads our own universe's Harmonic Signature as closest to a Binary Kerr–Kerr Merger Origin, a double-injection harmonic profile. How strongly a merger compresses depends on mass, spin and alignment contributions, which the book treats as separable, and the progression runs from Schwarzschild baselines through increasingly compressed Kerr geometries to complex multi-harmonic merger signatures. For a universe at recursion level n, PD(n) = Z × 2ⁿ × f₀ⁿ × F(∅▤, spin, ⋎) [𝕃], where Z is the Zinf Unit, f₀ the baseline heritage per level of an uncompressed lineage and F the Relativistic Compression Factor set by the progenitor's properties. Binary Null Well Mergers connect to Pulse Diameter Variability, Compressed Harmonic Scaling, Binary Kerr–Kerr Merger Origin, Compression Factor, Collision Channel and Gravitational Wave Interference.