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This paper proposes mapping biological sleep mechanisms, specifically the "ringing, resonance and renormalization" framework, onto digital memory architectures to solve issues like semantic drift and capacity saturation in persistent LLM agents. It argues that selectionist consolidation offers a superior alternative to current instructionist methods for managing continuous learning under finite storage constraints. The work bridges cognitive science and AI engineering by suggesting that artificial systems require analogous restorative processes to maintain performance over time.
Do agents need to sleep?
arXiv:2611.02216v2 Announce Type: cross Abstract: LLM-based agents, which increasingly operate persistently across sessions and accumulate memory through interaction, already exhibit the familiar symptoms of unchecked plasticity: semantic drift, degraded retrieval precision, propagation of stored errors, and saturation of memory capacity. Drawing on the selectionist "ringing, resonance and renormalization" (RRR) account of sleep, we propose that each of its three phases maps onto an operation feasible in digital memory architectures. Engineers building stateful agents, meanwhile, are independently rediscovering the problems sleep evolved to solve: what to forget, and when to do the forgetting. From this we derive the falsifiable prediction that selectionist consolidation will outperform instructionist alternatives as memory stores grow large. The core claim concerns the nature of continuous learning itself: plasticity has a price, and for any system that learns continuously under finite capacity while coupled to its environment, that price is sleep.
Title:Do agents need to sleep?
Abstract:LLM-based agents, which increasingly operate persistently across sessions and accumulate memory through interaction, already exhibit the familiar symptoms of unchecked plasticity: semantic drift, degraded retrieval precision, propagation of stored errors, and saturation of memory capacity. Drawing on the selectionist "ringing, resonance and renormalization" (RRR) account of sleep, we propose that each of its three phases maps onto an operation feasible in digital memory architectures. Engineers building stateful agents, meanwhile, are independently rediscovering the problems sleep evolved to solve: what to forget, and when to do the forgetting. From this we derive the falsifiable prediction that selectionist consolidation will outperform instructionist alternatives as memory stores grow large. The core claim concerns the nature of continuous learning itself: plasticity has a price, and for any system that learns continuously under finite capacity while coupled to its environment, that price is sleep.
Neurons and Cognition (q-bio.NC); Artificial Intelligence (cs.AI)
arXiv:2611.02216 [q-bio.NC]
(or arXiv:2611.02216v2 [q-bio.NC] for this version)
https://doi.org/10.48550/arXiv.2611.02216 Focus to learn more arXiv-issued DOI via DataCite
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Full text under the publisher's open licence · 240 words
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