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KT Slides Tucson TSC 2022

Giulio Ruffini

P1·Computational Neuropsychiatry & NeurophenomenologyP2·Artificial & Synthetic IntelligenceP4·Philosophy & EthicsP5·Digital Physics & Algorithmic Information TheoryP6·Life & EvolutionL1·PhilosophyL3·Algorithmic SoupL4·PhysicsL5·LifeL6·Brains

This work presents Kolmogorov Theory (KT), a theoretical framework for consciousness grounded in algorithmic information theory (AIT), proposing that structured experience arises in agents that construct and deploy compressive, encompassing models of their environment. The central hypothesis holds that the richness and organization of conscious experience scales with an agent's access to optimal models—programs of minimal Kolmogorov complexity that maximally capture regularities in sensory data—and that the event of structured experience corresponds to the successful comparison of such models against incoming data. KT connects first-person phenomenology with third-person computational and dynamical systems perspectives, linking model compression to criticality theory, reduced-manifold dynamics, and Noether symmetry principles as the physical substrate of structured experience. The framework is positioned as a unifying approach compatible with existing theories including Integrated Information Theory, Global Workspace Theory, and the Free Energy Principle, while extending naturally to a generalized, panpsychist account in which all persistent, structure-capturing systems—from living organisms to artificial agents—possess some degree of structured experience. Neurophenomenological applications are outlined, including the use of natural language processing to quantify experiential structure in altered states induced by psychedelics and meditation, offering empirically tractable metrics for testing the theory's predictions.

Consciousness scales with how well an agent compresses the world — and this paper tries to make that precise.

The core idea is simple: an agent has richer, more structured conscious experience to the degree that it possesses compact, accurate models of its environment. "Compact" here means low Kolmogorov complexity — the length of the shortest program that reproduces a dataset. A short program that accurately generates a lot of data has necessarily discovered real structure in the world. KT's central hypothesis is that structured experience (what the paper calls 𝒮) arises specifically at the moment a good model is successfully compared against incoming sensory data. The richness of that experience tracks how compressive and encompassing the model is.

The framework then connects this algorithmic idea to physics. If a brain is a dynamical system running a compressive model of structured data, its state trajectories must live on a low-dimensional submanifold — because the data itself has low intrinsic dimensionality. The paper ties this to criticality theory: dynamical systems near a critical point (where eigenvalues hover near zero) naturally collapse onto such reduced manifolds. Noether's theorem enters as a bonus: symmetries in the data correspond to conserved quantities in the dynamics, giving a physical grounding for why model structure and experiential structure should mirror each other. Psychedelics and meditation, on this view, perturb the system away from its constrained manifold — which is why they feel like they do.

The theory is explicitly panpsychist: anything that persistently captures structure from its environment — a bacterium, a brain, potentially an AI — has some degree of 𝒮. Life itself is reframed as transgenerational model-building (evolution as slow compression), and intelligence as within-lifetime model-building on top of that static base. This is a provocative but internally consistent move: it dissolves the sharp line between living and non-living, and between conscious and non-conscious, replacing both with a continuum of compression quality.

For empirical traction, the paper points to natural language processing of first-person reports under altered states. Metrics like semantic coherence and speech disorganization index can quantify how structured a person's experience is, and these can then be correlated with EEG or fMRI signals — giving a path from the first-person to the third-person without hand-waving. The source is a slide deck from a 2022 conference presentation, so the arguments are outlined rather than fully developed; the authors note a preprint was forthcoming. The ideas are substantive but the treatment here is necessarily compressed.

Zenodo
10.5281/zenodo.21008771
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WP0120
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