A Theoretical Systems-Analogy Framework for Lithic Structural Topologies: An Information-Physics Analysis of the Giza Megastructural Grid

This monograph delivers a formal architectural and systems-engineering structural analysis of the Giza megalithic matrix, executed through the paradigms of information physics, non-linear acoustics, and solid-state materials topology. Departing from linear qualitative archaeological paradigms, we propose a self-consistent analytical model that maps the macro-structural dimensions and physical layout of the Great Pyramid complex to the geometric invariances and routing components characteristic of high-density solid-state computing hardware. The baseline microprocessor computing topologies and geometric invariances embedded within global ancient megalithic ruins demonstrate an operational bandwidth and thermodynamic feedback loop that execute with absolute mathematical closure within the domain of pure information physics. This framework provides an analytical comparative model contrasting these ancient lithic structures with the linear physical constants and standard silicon-oxide micro-electronics circulating within contemporary computing systems. This systems-analogy is engineered to demonstrate the structural coherence synthesized when pristine historic geometric invariance is analyzed alongside modern computational modeling bandwidth, serving as an advanced conceptual thought experiment in high-concurrency architecture.