A Physical Model of Cosmic Topology as an Evolutionary Information System

This paper presents a speculative but theoretically integrated model that reconceptualizes the universe as a dynamic, computationally emergent topology governed by information flow and entropy gradients. Rather than treating spacetime and physical laws as fixed structures, the model proposes that they emerge from an evolving infodynamic network of discrete informational units—infons—connected through context-sensitive topological relations. The framework bridges quantum information theory, cosmology, systems evolution, and computational physics, arguing that phenomena like spacetime, matter, inflation, dark energy, and black holes are not primitive constructs but phases or attractors in a distributed information topology. Concepts such as topological phase transitions, dimensional emergence, and informational manifolds are introduced to describe the structural reconfiguration of the universe across entropy gradients. The paper also outlines a testable simulation architecture and proposes how gravitational, quantum, and cosmological phenomena may be reinterpreted as manifestations of an underlying infodynamic substrate. Ultimately, it offers a unified theory of physical emergence based on informational causality, topological memory, and meta-entropy expansion.