Coherence Information Theory and the Future of Communication

Shannon’s information theory successfully quantified entropy in communication systems but failed to incorporate coherence as a fundamental principle. Traditional models treat all transmitted data as equally meaningful, yet in reality, only structured, coherence-weighted information contributes to adaptive system evolution. In this paper, I introduce Coherence Information Theory (CIT) as a necessary extension of classical entropy models, defining information not as a raw probability function but as a coherence-weighted exchange that refines system adaptation. I formalize CIT mathematically by introducing a coherence-weighted entropy function, which replaces naïve bit-counting with recursive coherence selection as the key driver of meaning transmission. I demonstrate how CIT applies to language, AI cognition, cryptography, and digital communication, showing that real-world information flow is structured by coherence gradients rather than stochastic distributions. The implications of this shift are profound: AI systems will require coherence tracking to achieve general intelligence, network communication will optimize bandwidth efficiency by eliminating redundant data, and encryption will shift from brute-force complexity to coherence-adaptive security. This paper establishes a unified theoretical framework for meaning formation, knowledge transfer, and adaptive intelligence, resolving critical flaws in existing models of information processing. Through experimental validation, I propose tests for linguistic coherence evolution, entropy-optimized streaming, and AI-driven coherence reasoning. Coherence Information Theory is not just a refinement of existing paradigms—it represents a fundamental shift in how we define and quantify information itself.