Wetware network-based AI: a chemical approach to embodied cognition for robotics and artificial intelligence.

Wetware Network-Based Artificial Intelligence (WNAI) proposes building autonomous cognitive agents from synthetic chemical networks, shifting wetware neuromorphic engineering from disembodied computation and biological mimicry to reticular chemical self-organization. The framework integrates network cybernetics, autopoietic theory, and enaction to treat cognition as a materially grounded, emergent phenomenon. WNAI complements embodied AI and xenobiotics by expanding artificial embodied cognition into fully synthetic domains and exchanges with neural network architectures to advance cross-substrate principles. It offers a roadmap for chemical neural networks and protocellular agents, aiming for robotic systems requiring minimal, adaptive, substrate-sensitive intelligence, thus expanding artificial cognition beyond silicon and biohybrid systems.

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Abstract

Wetware Network-Based Artificial Intelligence (WNAI) introduces a new approach to robotic cognition and artificial intelligence: autonomous cognitive agents built from synthetic chemical networks. Rooted in Wetware Neuromorphic Engineering, WNAI shifts the focus of this emerging field from disembodied computation and biological mimicry to reticular chemical self-organization as a substrate for cognition. At the theoretical level, WNAI integrates insights from network cybernetics, autopoietic theory and enaction to frame cognition as a materially grounded, emergent phenomenon. At the heuristic level, WNAI defines its role as complementary to existing leading approaches. On the one hand, it complements embodied AI and xenobotics by expanding the design space of artificial embodied cognition into fully synthetic domains. On the other hand, it engages in mutual exchange with neural network architectures, advancing cross-substrate principles of network-based cognition. At the technological level, WNAI offers a roadmap for implementing chemical neural networks and protocellular agents, with potential applications in robotic systems requiring minimal, adaptive, and substrate-sensitive intelligence. By situating wetware neuromorphic engineering within the broader landscape of robotics and AI, this article outlines a programmatic framework that highlights its potential to expand artificial cognition beyond silicon and biohybrid systems.