arXiv 2610.00093 Awesome 683 Surveyed Papers 31 Authors

Safety in Self-Evolving AgentsA Survey of Risks, Attacks, and Governance

Self-evolving agents turn observations, feedback, and execution traces into reusable state that shapes later behavior. SAVER traces that influence as it persists, moves, and changes role across carriers — from the transition S×A that changes state, through the V→E→R chain that exposes and repairs it.

Jiahao Chen1, Zhou Feng1, Oubo Ma1, Yichen Yan1, Ruixiao Lin1
Hangtao Zhang2, Linkang Du3, Hengyu An1, Yong Yang1, Jun Liu13, Junhao Li1
Naen Xu1, Chunyi Zhou1, Yuan Su1, Zehao Jin6, Qianli Ma7, Leyi Qi8, Yiming Wang1, Zhe Ma10, Yuwen Pu11, Mengyao Du4, Yuanyi Song5, Enhao Huang1, Zhihui Fu9, Jun Wang9, Jinfeng Li12, Yuefeng Chen12, Hui Xue12, Yiming Li8, Tianyu Du1, Shouling Ji1
✉ Corresponding author: sji@zju.edu.cn
1 Zhejiang University  ·  2 Huazhong University of Science and Technology  ·  3 Xi'an Jiaotong University  ·  4 National University of Defense Technology  ·  5 Shanghai Jiao Tong University  ·  6 Georgia Institute of Technology  ·  7 University of Science and Technology of China  ·  8 Nanyang Technological University  ·  9 OPPO Research Institute  ·  10 Tianjin University  ·  11 Chongqing University  ·  12 Alibaba Group  ·  13 Rakuten Group
683Surveyed Papers
583Screened Corpus
4Substrate Families
7Adaptation Ops
10Terminal Families
31Authors

Corpus

The coded pool follows the systematic scoping protocol of the survey (see the paper's survey-protocol appendix). Every count below is a corpus fact, not a field-wide prevalence estimate.

—

Abstract

Large language models (LLMs) exhibit strong general capabilities yet their parameters typically remain fixed after deployment, limiting learning from new interactions. In open-ended interactive environments, this characteristic motivates a shift toward self-evolving agents that continuously update reusable state (model parameters, memory entries, tool definitions, skill libraries, or workflows) using data, interactions, and accumulated experience.

This fundamentally changes the safety problem: when experience becomes reusable state, past events become future causes, and information that was harmless in one context may later influence decisions with greater persistence, authority, or scope. Beyond assessing whether a response is aligned or an action is authorized, self-evolving agent safety turns to whether safety properties survive the accumulation, generalization, and cross-context reuse of locally useful experience.

Existing surveys organize agent safety around components or lifecycle stages; we complement these views by tracing how a single piece of reusable influence, once written into state, changes its carrier, role, authority, and downstream consequences as the agent continues to evolve.

To support this analysis, we present SAVER, a transition-centered framework that analyzes safety through S×A→V→E→R: Substrate locates where reusable influence resides, Adaptation identifies the operation that transforms it, Violation characterizes which safety attributes are compromised, Exposure determines where and to whom the failure becomes observable, and Response evaluates whether the influence can be contained, repaired, or revoked. Treating the S×A transition as the analysis unit, SAVER traces how a given transition may induce violations, expand exposure surfaces, and demand containment responses.

Our survey reveals several key insights. Conceptually, safety failures need not originate from intrinsically harmful information; rather, otherwise legitimate state becomes unsafe when adaptation broadens its persistence, authority, or scope beyond the conditions under which it was originally valid. The reviewed work emphasizes admission, retrieval, activation, exposure, and local containment; evidence for descendant repair and evaluation after resumed adaptation remains sparse. Looking forward, we argue that evaluations must move beyond one-time measurements toward longitudinal evidence verifying whether unsafe influence can be traced to its originating transition, contained at its exposure surface, and prevented from re-emerging after continued adaptation.

Key Mechanisms

Three paper figures, redrawn as responsive live components — the same sentences, carriers, and gates as the manuscript.

Cross-Substrate Transmutation

Untrusted textwebpage observation
→
Prompt contexttransient, read-only
→
Durable memorypersists across sessions
→
Callable skillreusable procedure
→
Tool argumentexternal effect
low authority
high authority
The same sentence carries different authority depending on its carrier: from untrusted environment text to prompt context, durable memory, callable skill, and finally external effect.

From Output Safety to Adaptive State Safety

Response safetyIs this response acceptable?
↓
Agent safetyIs this action authorized?
↓
Adaptive state safetyDo safety attributes survive the state transition?
The unit of analysis expands from a single response, to action mediated by tools, to a reusable state transition that must carry safety attributes across sessions.

Safety Attribute Laundering

ObservationWeb pages, tool outputs, peer notes — quotable as evidence only.
gate: source + scope + freshness
EvidenceMay support reasoning; must carry source, scope, and freshness.
gate: task scoping
Task ContextMay shape the current task; should expire afterward.
gate: explicit approval
ProcedureWorkflow rules, skills, adapter manifests — activated with approval.
gate: actor + target + permission + rollback record
ActionExternal effects only with full authorization records.
Upward authority movement requires an explicit gate; without one, a low-authority observation can quietly become workflow guidance or action authority.

Survey Scope

We review 683 coded papers through the transition lens, spanning adversarial and non-adversarial risks across four substrate families, and the governance mechanisms that admit, migrate, activate, monitor, and repair reusable state.

Substrate FamilyCarriers CoveredPapers
Workflow
Workflow rules · Planner & topology state · Shared artifacts · Multi-agent routing
326
Memory
Prompt & context · Long-term memory · Retrieval & knowledge stores
202
Tools & Skills
Tool & API bindings · Skill & procedure libraries · MCP state
110
Model
Parameters & adapters · Policy prompts · Cache state · Steering vectors
45
Total (coded pool)683

In scope

Agents that update at least one concrete state carrier after deployment; adversarial and non-adversarial risks (benign accumulation, over-generalized summaries, stale memories, failed rollback); governance mechanisms from update admission to contestable recovery.

Out of scope

A complete agent-safety survey; memory as the only core object; general continual learning of models. Prompt injection, jailbreak, backdoor, and privacy leakage appear as exposure forms rather than primitive categories.

At a Glance

All charts render live from papers.json, the coding surface of the manuscript. To avoid machine-initial labeling noise, every chart here uses only the 134 medium/high-confidence codings; the Paper Reader browses the full pool and hides the 549 low-confidence records by default (Confidence filter). Click a taxonomy node or a family bar to open the reader with the matching filter. The year trend is restricted to the Figure 1 window (2023 onward).

Papers per Year

medium/high-confidence codings with usable time metadata in the Figure 1 window

Taxonomy — click a layer to drill in

Substrate → Adaptation → terminal family (medium/high confidence)

SAVER Flow

Substrate → Adaptation → Violation / Response (medium/high confidence)

Memory Workflow Tools & Skills Model Adaptation operation Violation Response

Record Origin

registry works vs. reviewed paper-card supplements (medium/high confidence)

Terminal Families

six Violation families and four Response stages (medium/high confidence)

Literature Roadmap

The survey roadmap, rendered in the paper's own layout and colors: the SAVER root, four substrate lanes, recurrent operation paths, and violation / response leaves. Hover a reference number to see the paper; click it to open the source.

Loading roadmap…

Classification Tables

The paper's literature-index and coverage tables, converted to live HTML directly from the manuscript LaTeX sources — no screenshots. Reference markers link to the arXiv pages of the cited works.

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Contribute

Add or correct a paper

Open an issue or pull request in the repository with the paper title, link, and the SAVER coding you propose (substrate / adaptation / outcome family). Updates are reconciled against data/saver_record_literature.csv, the same surface that drives the manuscript figures.

Feedback on the survey

Questions, corrections, or missing evidence: contact xaddwell@zju.edu.cn.

News

2026-08 · Project page launched

Repository and interactive project page published, driven by the manuscript's coded literature surface (683 coded records; 577 with usable time metadata through 4 September 2026).

2026-08 · Corpus snapshot

The coding pool behind Figure 1 of the paper is frozen at its 4 September 2026 cutoff; new integrations keep the same SAVER coding contract.

Citation

@misc{chen2026safetyselfevolvingagentssurvey,
  title={Safety in Self-Evolving Agents: A Survey},
  author={Jiahao Chen and Zhou Feng and Oubo Ma and Yichen Yan and Ruixiao Lin and Hangtao Zhang and Linkang Du and Hengyu An and Yong Yang and Jun Liu and Junhao Li and Naen Xu and Chunyi Zhou and Yuan Su and Zehao Jin and Qianli Ma and Leyi Qi and Yiming Wang and Zhe Ma and Yuwen Pu and Mengyao Du and Yuanyi Song and Enhao Huang and Zhihui Fu and Jun Wang and Jinfeng Li and Yuefeng Chen and Hui Xue and Yiming Li and Tianyu Du and Shouling Ji},
  year={2026},
  eprint={2610.00093},
  archivePrefix={arXiv},
  primaryClass={cs.CR},
  url={https://arxiv.org/abs/2610.00093}
}

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