The Relativity of AGI: Distributional Axioms, Fragility, and Undecidability
Angshul Majumdar

TL;DR
This paper explores the theoretical limits of defining and certifying Artificial General Intelligence (AGI), revealing its inherent relationality, fragility, and undecidability, which challenge the notion of universal, self-verifiable AGI.
Contribution
It formalizes AGI as a distributional, resource-bounded semantic predicate and derives fundamental limitations on its invariance, robustness, transferability, and certifiability.
Findings
AGI is inherently relational and cannot be distribution-independent.
Small changes in task distribution can invalidate AGI properties.
AGI cannot be fully certified or self-verified by any computable procedure.
Abstract
We study whether Artificial General Intelligence (AGI) admits a coherent theoretical definition that supports absolute claims of existence, robustness, or self-verification. We formalize AGI axiomatically as a distributional, resource-bounded semantic predicate, indexed by a task family, a task distribution, a performance functional, and explicit resource budgets. Under this framework, we derive four classes of results. First, we show that generality is inherently relational: there is no distribution-independent notion of AGI. Second, we prove non-invariance results demonstrating that arbitrarily small perturbations of the task distribution can invalidate AGI properties via cliff sets, precluding universal robustness. Third, we establish bounded transfer guarantees, ruling out unbounded generalization across task families under finite resources. Fourth, invoking Rice-style and…
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Taxonomy
TopicsComputability, Logic, AI Algorithms · Ethics and Social Impacts of AI · Cognitive Computing and Networks
