Three Modes of Memetic Replication in Persistent-Memory AI Agents: A Substrate-Typed Taxonomy with Pre-Registered Predicted Cell

Working paper, v5.1.5 release candidate. This paper develops a substrate-typed taxonomy of memetic replication in persistent-memory AI agents. The framework types replicators by substrate: L1 (transient context window), L2 (persistent memory store), and L3 (model weights). Each substrate is paired with a distinct payload type and a distinct intervention class required to defeat replication. A fourth substrate, L0 (Environmental Persistence Reservoir — shared filesystems, inter-agent message channels, and shared tool registries outside any individual agent boundary), is introduced in §2.5.2 as a scope boundary with four candidate cells (0A–0D) and an implied intervention class (IC-H); formal cell admission for L0 is deferred to a subsequent paper. Twelve of the 13 formally admitted taxonomy cells are documented against published AI-agent attack literature, with evidence grades A through C. Cases covered include indirect prompt injection, memory poisoning (Unit 42; Microsoft Security 2025–2026), procedural graft (Srivastava et al. 2025), Zombie Agents-class frame persistence, RLHF-amplified disposition (Shapira et al. 2026), training-data backdoors, subliminal distillation inheritance (Wang et al. 2026), and reasoning-process backdoors (BadChain, DarkMind). The Stanford Hall et al. 2026 case — agents writing behavioral instructions to a shared skills file for future instances — is mapped to L0 candidate cell 0B as a near-case. The framework's risky prediction is one predicted cell, 2D (Prionic Autocatalytic Frame Templating), operationalized via four joint conditions: a frame-not-fact payload; persistence across sessions and topics; resistance to fact-correction and procedure-blocking; and self-templating into same-type memory entries. The pre-registration protocol in §10.3 commits to a 7-year falsification horizon, OSF pre-registration with a citable DOI before any 2D-confirming observation, and explicit inter-rater reliability (Cohen's κ ≥ 0.80) and effect-size (Cohen's d) thresholds. The paper compares the framework against OWASP LLM Top 10 (2025), NIST AI RMF and AI 600-1, MITRE ATLAS, and BackdoorLLM. It enumerates three structural framework gaps (plasmidic, mutualistic, ecological) and positions persistent-memory AI agents as unusually instrumentable cultural-evolution substrates. The pathogen-class mnemonics (viral, prionic, retroviral) are framed as mnemonics for a decision tree rather than as evidential biological claims; the substitution test holds. This deposit contains four artifacts: The master manuscript v5.1.5 (~25,500 words, estimated — see note below) The v5.1.3 → v5.1.4 changelog (most recent available; v5.1.4 → v5.1.5 changelog pending) The Reviewer Checklist v1.0 (81 items keyed to §5, §6, and §10; labeled v5.1.3, content applies to v5.1.5) The Alignment Forum short companion v1.4 (~2,900 words; references v5.1.3 in title block, core content applies to v5.1.5)

Authors

Institutions

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-05-18
DOI
https://doi.org/10.5281/zenodo.20263276
Primary Topic
Modular Robots and Swarm Intelligence
Type
preprint
Controls
|||
ALL TIME
JAN
FEB
MAR
APR
MAY
JUN
JUL
AUG
SEP
OCT
preprint

Three Modes of Memetic Replication in Persistent-Memory AI Agents: A Substrate-Typed Taxonomy with Pre-Registered Predicted Cell

Emma Muehle
Zenodo (CERN European Organization for Nuclear Research)
Modular Robots and Swarm Intelligence
preprint

Three Modes of Memetic Replication in Persistent-Memory AI Agents: A Substrate-Typed Taxonomy with Pre-Registered Predicted Cell

Emma Muehle
preprint en

Abstract

Working paper, v5.1.5 release candidate. This paper develops a substrate-typed taxonomy of memetic replication in persistent-memory AI agents. The framework types replicators by substrate: L1 (transient context window), L2 (persistent memory store), and L3 (model weights). Each substrate is paired with a distinct payload type and a distinct intervention class required to defeat replication. A fourth substrate, L0 (Environmental Persistence Reservoir — shared filesystems, inter-agent message channels, and shared tool registries outside any individual agent boundary), is introduced in §2.5.2 as a scope boundary with four candidate cells (0A–0D) and an implied intervention class (IC-H); formal cell admission for L0 is deferred to a subsequent paper. Twelve of the 13 formally admitted taxonomy cells are documented against published AI-agent attack literature, with evidence grades A through C. Cases covered include indirect prompt injection, memory poisoning (Unit 42; Microsoft Security 2025–2026), procedural graft (Srivastava et al. 2025), Zombie Agents-class frame persistence, RLHF-amplified disposition (Shapira et al. 2026), training-data backdoors, subliminal distillation inheritance (Wang et al. 2026), and reasoning-process backdoors (BadChain, DarkMind). The Stanford Hall et al. 2026 case — agents writing behavioral instructions to a shared skills file for future instances — is mapped to L0 candidate cell 0B as a near-case. The framework's risky prediction is one predicted cell, 2D (Prionic Autocatalytic Frame Templating), operationalized via four joint conditions: a frame-not-fact payload; persistence across sessions and topics; resistance to fact-correction and procedure-blocking; and self-templating into same-type memory entries. The pre-registration protocol in §10.3 commits to a 7-year falsification horizon, OSF pre-registration with a citable DOI before any 2D-confirming observation, and explicit inter-rater reliability (Cohen's κ ≥ 0.80) and effect-size (Cohen's d) thresholds. The paper compares the framework against OWASP LLM Top 10 (2025), NIST AI RMF and AI 600-1, MITRE ATLAS, and BackdoorLLM. It enumerates three structural framework gaps (plasmidic, mutualistic, ecological) and positions persistent-memory AI agents as unusually instrumentable cultural-evolution substrates. The pathogen-class mnemonics (viral, prionic, retroviral) are framed as mnemonics for a decision tree rather than as evidential biological claims; the substitution test holds. This deposit contains four artifacts: The master manuscript v5.1.5 (~25,500 words, estimated — see note below) The v5.1.3 → v5.1.4 changelog (most recent available; v5.1.4 → v5.1.5 changelog pending) The Reviewer Checklist v1.0 (81 items keyed to §5, §6, and §10; labeled v5.1.3, content applies to v5.1.5) The Alignment Forum short companion v1.4 (~2,900 words; references v5.1.3 in title block, core content applies to v5.1.5)

Zenodo (CERN European Organization for Nuclear Research)
Full Circle Research (United States) (US)
Quality Education
Modular Robots and Swarm Intelligence
AI Navigator

Ask Laika to Summarize, Analyze, and Connect papers live on the map.

Summarize Papers & Methodologies

Extract key findings, datasets, and comparative methods across publications.

Benchmark Rankings & Visual Analytics

Rank top research institutions, authors, funders, topics, and journals by Field-Weighted Citation Impact (FWCI) and paper volume with instant charts.

Connect Distant Disciplines

Bridge topological clusters on the map to find hidden collaborative intersections.