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This research establishes a theoretical breakthrough by proving that Physics-Grounded Symbolic Architectures (PGSA) can achieve linear identifiability and near-infinite temporal consistency for non-Gaussian physical systems, overcoming the fundamental limits inherent in statistical Joint-Embedding Predictive Architectures. By formalizing these proofs in Lean 4 with Mathlib4, the authors demonstrate that symbolic grounding is not merely an architectural choice but a necessary condition for maintaining representation accuracy over unbounded time horizons in real-world dynamics. This work shifts the paradigm of world modeling from purely statistical alignment to causal-symbolic generation, offering a rigorous path toward robust long-horizon prediction without relying on Gaussian assumptions.
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Identifiability Without Gaussianity: Symbolic World Models and Near-Infinite Temporal Consistency

arXiv3 min read

arXiv:2606.12471v1 Announce Type: cross Abstract: Klindt, LeCun, and Balestriero (arXiv:2605.26379) proved that Joint-Embedding Predictive Architectures (JEPAs) achieve linear identifiability, the linear recovery of the world's true latent variables, if and only if the world's latent dynamics follow a Gaussian, stationary process. This Gaussian boundary implies a fundamental limit on temporal consistency: for any non-Gaussian physical system, the representation error of a statistical World Model grows monotonically with time. We prove that this limit is an artifact of the statistical alignment mechanism, not a property of World Models in general. We introduce the Physics-Grounded Symbolic Architecture (PGSA) and prove three results: (1) a PGSA achieves exact linear identifiability for all physical regimes, regardless of the latent distribution; (2) the per-step error of a PGSA is bounded by numerical precision alone; and (3) as a direct consequence, a PGSA maintains temporal consistency for an unbounded number of transitions, a property we term near-infinite temporal consistency. We further prove that statistical World Models cannot achieve this property for any non-Gaussian system, regardless of model capacity or the volume of training data. The algebraic cores of four of the theorems are formalized in Lean 4 with Mathlib4 v4.31.0 (zero sorry placeholders); the Klindt et al. converse is taken as an external premise. The contrast establishes that symbolic grounding in the causal generator of the world's dynamics is the sufficient condition and, in non-Gaussian regimes, the only condition for near-infinite temporal consistency.

Abstract:Klindt, LeCun, and Balestriero (arXiv:2605.26379) proved that Joint-Embedding Predictive Architectures (JEPAs) achieve linear identifiability, the linear recovery of the world's true latent variables, if and only if the world's latent dynamics follow a Gaussian, stationary process. This Gaussian boundary implies a fundamental limit on temporal consistency: for any non-Gaussian physical system, the representation error of a statistical World Model grows monotonically with time. We prove that this limit is an artifact of the statistical alignment mechanism, not a property of World Models in general. We introduce the Physics-Grounded Symbolic Architecture (PGSA) and prove three results: (1) a PGSA achieves exact linear identifiability for all physical regimes, regardless of the latent distribution; (2) the per-step error of a PGSA is bounded by numerical precision alone; and (3) as a direct consequence, a PGSA maintains temporal consistency for an unbounded number of transitions, a property we term near-infinite temporal consistency. We further prove that statistical World Models cannot achieve this property for any non-Gaussian system, regardless of model capacity or the volume of training data. The algebraic cores of four of the theorems are formalized in Lean 4 with Mathlib4 v4.31.0 (zero sorry placeholders); the Klindt et al. converse is taken as an external premise. The contrast establishes that symbolic grounding in the causal generator of the world's dynamics is the sufficient condition and, in non-Gaussian regimes, the only condition for near-infinite temporal consistency.

Machine Learning (stat.ML); Computation and Language (cs.CL); Emerging Technologies (cs.ET); Machine Learning (cs.LG)

arXiv:2606.12471 [stat.ML]

(or arXiv:2606.12471v1 [stat.ML] for this version)

https://doi.org/10.48550/arXiv.2606.12471 Focus to learn more arXiv-issued DOI via DataCite

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Full text under the publisher's open licence · 334 words

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