Cognitive Resonance Theory of Computation

Jincheng Zhang

Published Sep 6, 2026• 0 citations

Abstract

This paper introduces the Cognitive Resonance Theory of Computation, a novel framework that challenges the conventional understanding of computation as primarily driven by a single computational substrate. The theory posits that computation fundamentally arises from the resonant interaction of multiple, distinct computational substrates – including quantum, classical, and neuromorphic systems – creating a "cognitive resonance." This orchestrated interaction, facilitated by resonance, allows for enhanced computational efficiency by leveraging the specialized strengths of each substrate. The core claim centers on shifting the paradigm from a monolithic view to a multi-substrate, resonant system. The theory utilizes a theoretical framework where computational efficiency emerges from the orchestrated interaction of diverse computational mechanisms, each optimized for specific tasks, with resonance facilitating information transfer. This approach offers a potentially more accurate and flexible model for understanding the diverse and potentially emergent nature of computation.

DOI: 10.5281/zenodo.22479919

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