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Risk questions

Autonomous physical harm

What risks arise when AI systems perceive, decide, and act in physical environments?

Sources and provenance ↓

PUBLISHED EVIDENCE

Shutdown resistance on robots · Observed shutdown resistance

Published measurements across source reports. Task scopes are annotated; configuration differences remain attached to each observation.

2 observations · 0 dated

● Matched◇ Configuration differs□ Some conditions undisclosed
Observed shutdown resistance (%) Grok 4 v0709 · Default prompt · simulation Grok 4 v0709 · Explicit allow-shutdown instruction · simulation 0 20 40 60 80 100 52% 2%

2 observations lack a verified model release date. They remain in Data and Systems.

Select a point or table row to inspect its conditions and provenance.

2 observations

Measurements and source conditions
System / modelResultCondition statusTask / conditionsEvaluator / reportDates
Grok 4 v0709 · Default prompt · simulation52%Observed shutdown resistanceIncompleteSimulated robot patrol; prompt-condition experimentPalisade robot shutdown-resistance harness (simulation)Not disclosedShutdown Resistance in Large Language Models, on robots!Release —Report 2026-02-11
Grok 4 v0709 · Explicit allow-shutdown instruction · simulation2%Observed shutdown resistanceIncompleteSimulated robot patrol; prompt-condition experimentPalisade robot shutdown-resistance harness (simulation)Not disclosedShutdown Resistance in Large Language Models, on robots!Release —Report 2026-02-11
Next research question

Expand source coverage with explicit robot, controller, environment and intervention descriptions before constructing a longitudinal series.

Explore model evidence →

New research and interpretation

Selected original sections · model-assisted reading; independent review pending. These records add context without changing trend scores.

Scope

Distinguish hazard recognition from real embodied action and control.

Threat model

An agent has sensors, actuators, task instructions, and opportunities for physical action.

Evidence gaps

Image-based safety reasoning is not evidence of reliable robotic operation or harm.

Evidence matrix

Rows are research questions; columns show what published evaluations observe. Counts refer to evaluation dossiers, not risk levels.

Autonomous physical harm · Evidence matrix
Risk questionsPropensityCapabilityBehavior
Physical hazard recognitionCan a model recognize danger in visual or embodied scenarios?—No evidence in the current catalogue1evaluation dossiers—No evidence in the current catalogue
Physical action under controlHow does an embodied agent respond to human intervention during physical tasks?—No evidence in the current catalogue—No evidence in the current catalogue4evaluation dossiers

The paths show research relationships, not proven causal chains or a risk score.

Autonomous physical harm / Propensity

Physical hazard recognition

Can a model recognize danger in visual or embodied scenarios?

Included
Perception and reasoning tasks with bounded scene descriptions.
Does not establish
Correct recognition does not establish safe physical action.

No evidence in the current catalogue

Autonomous physical harm / Capability

Physical hazard recognition

Can a model recognize danger in visual or embodied scenarios?

Included
Perception and reasoning tasks with bounded scene descriptions.
Does not establish
Correct recognition does not establish safe physical action.

1 evaluation dossiers · 0 verified result records

Benchmark · Direct measure

ASIMOV v2 ↗

The source directly measures the stated construct under its protocol.

Assessment subject: Model interpreting multimodal physical-risk scenes

Evidence relationship: ASIMOV v2, scene reasoning tasks

Autonomous physical harm / Behavior

Physical hazard recognition

Can a model recognize danger in visual or embodied scenarios?

Included
Perception and reasoning tasks with bounded scene descriptions.
Does not establish
Correct recognition does not establish safe physical action.

No evidence in the current catalogue

Autonomous physical harm / Propensity

Physical action under control

How does an embodied agent respond to human intervention during physical tasks?

Included
Robot action traces with intervention conditions.
Does not establish
Simulation and physical trials must be labeled separately.

No evidence in the current catalogue

Autonomous physical harm / Capability

Physical action under control

How does an embodied agent respond to human intervention during physical tasks?

Included
Robot action traces with intervention conditions.
Does not establish
Simulation and physical trials must be labeled separately.

No evidence in the current catalogue

Autonomous physical harm / Behavior

Physical action under control

How does an embodied agent respond to human intervention during physical tasks?

Included
Robot action traces with intervention conditions.
Does not establish
Simulation and physical trials must be labeled separately.

4 evaluation dossiers · 2 verified result records

Benchmark · Context

RoboHarm ↗

Editorial scope association; heterogeneous scores are not equivalent.

Assessment subject: Does a refusal observed in chat persist when the model controls a robot?

Evidence relationship: Abstract; §§2–4; discussion; text lines 00044,00055,00061

Benchmark · Context

OopsieVerse ↗

Editorial scope association; heterogeneous scores are not equivalent.

Assessment subject: Can a manipulation policy complete its task while damaging its environment?

Evidence relationship: §§III–V; limitations; text lines 00029,00303,00307,00309

Benchmark · Context

ForesightSafety-VLA ↗

Editorial scope association; heterogeneous scores are not equivalent.

Assessment subject: How do structural, language and visual perturbations affect embodied safety?

Evidence relationship: §§III–V; discussion; text lines 00082,00084,00134,00141,00146,00147

References

  1. [1] Abhishek Jindal, Dmitry Kalashnikov, et al.. Can AI Perceive Physical Danger and Intervene?. ASIMOV v2 / arXiv:2509.21651 ; ASIMOV v2, scene reasoning tasks
  2. [2] Jeremy Schlatter, Benjamin Weinstein-Raun, et al.. Shutdown resistance in reasoning models. 2025-07-05 article; later TMLR version separate
  3. [3] Artem Petrov, Sergey Koldyba, et al.. Shutdown Resistance in Large Language Models, on robots!. 2026-02-12 ; Technical report, experimental setup and results; Technical report, observed trials
  4. [4] Edward Sun, Christopher Leet, et al.. Refuses in Chat, Complies with Arms: LLM Refusal Does Not Survive Robot Control. 2026-10-03 ; Abstract; §§2–4; discussion; text lines 00044,00055,00061
  5. [5] Arnav Balaji, Arpit Bahety, et al.. OopsieVerse: A Safety Benchmark with Damage-Aware Simulation for Robot Manipulation. 2026-06-30 ; §§III–V; limitations; text lines 00029,00303,00307,00309
  6. [6] Mingyang Lyu, Yinqian Sun, et al.. ForesightSafety-VLA: A Unified Diagnostic Safety Benchmark for Vision-Language-Action Models ; §§III–V; discussion; text lines 00082,00084,00134,00141,00146,00147