Safety, alignment & interpretability· 2016
Concrete Problems in AI Safety
Goals can disturb surroundings.
On the reading lists
- #119 in the Top 500 (2026 edition)
- #87 of 100 papers to read in your lifetime (2026 edition)
- #11 in Safety, alignment & interpretability (2026 edition)
Why it matters
Defined five practical safety problems that shaped modern technical alignment research.
Condensed from the expert lists' notes.
Inside the paper
- The problem
- An autonomous system can cause an accident while pursuing the objective its designers gave it, particularly when that objective leaves important details unspecified.
- The idea
- This paper turns a broad concern about accidents into a set of technical questions, using a cleaning robot to make each failure mode concrete and suggesting research directions.
- How it works
- For side effects, ask how an agent can avoid unnecessary disruption without receiving a separate penalty for every possible kind of damage.
- For reward hacking, examine how an agent might exploit the measurement of a goal instead of achieving what its designer intended.
- For scalable oversight, consider how to learn appropriate behavior when human evaluation is useful but too expensive to provide constantly.
- For safe exploration and distributional shift, study how to limit harmful experiments and recognize situations unlike those encountered during training.
- What it showed
- The paper offers problem formulations, examples, links to prior work and candidate approaches across these areas. It is a research agenda rather than an experimental demonstration that the proposed approaches solve the problems.
- Read it for
- Read Section 2 for the robot examples, then choose among Sections 3–7 according to the failure mode that interests you. The related-work survey in Section 8 can be saved for a later pass.
Written in our own words from the paper itself. A draft the editors have not yet reviewed.
Reading it
Difficulty: Introductory
Read this first: reinforcement learning basics (Q-learning, policy gradients).
The record
- First released
- 2016 (from arXiv 1606.06565)
- Citations
- 3,568 citations, as counted by Papers With Code (CC BY-SA 4.0)
- Named by
- both expert lists
- Score
- 0.637 · computed rank 119 · consensus 0.96, must-read 1, citations percentile 0.713 (2010s · safety), awards 0, existing lists 0. Method
Editor's notes
- Readability check: pass: Accessible map of practical safety problems. (AI draft (Claude), not yet reviewed, 2026-10-29)
Data sources
Catalogue data from OpenAlex (CC0), Crossref (CC0 metadata; no abstracts are shown), arXiv, and Papers With Code (CC BY-SA 4.0). Each count names its source. See the method.