Measure how well a room is ventilated
Use a CO₂ monitor to estimate how often the air in a classroom, office or bedroom is replaced, then test what opening a window or running a fan actually does.
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Showing 108 projects
Short projects with numbered steps.
Use a CO₂ monitor to estimate how often the air in a classroom, office or bedroom is replaced, then test what opening a window or running a fan actually does.
Make a tiny calculator (a spreadsheet, notebook or web page) that tells anyone how much a portable air purifier would clean the air in their room.
Far-UVC light might kill airborne germs in occupied rooms. Write the clear, honest explainer the field is missing: what it is, how it works, what the evidence says, and what is still uncertain.
A great mask that leaks at the sides protects far less than people think. Make a clear, visual guide to fitting a respirator and the most common mistakes.
Companies make synthetic DNA to order. Screening those orders and the customers who place them is one of the main defences against engineered pandemics. Explain how it works and where the gaps are.
How did ancient and medieval societies protect themselves from plague? Research one historical practice (quarantine, isolation, trade rules) and draw a lesson for today.
Why does distance matter less indoors? Why does ventilation help? Turn the physics of how infectious particles move and build up in air into a clear explainer or interactive sketch.
The field lacks a friendly wiki. Pick one concept (far-UVC, DNA screening, elastomeric respirators, metagenomic surveillance) and write the clear, well-sourced page you wish existed.
Write a short, jargon-free explainer of one AI safety idea (reward hacking, sycophancy, compute governance, DNA screening) for someone outside tech.
Define ten key terms from the theme you’re most curious about, in one sentence each with an everyday example, then compare them with the site’s glossary.
Pick a beginner-friendly paper linked from any project on this site and summarise it in ten clear posts: the question, what they did, what they found, and why it matters.
A short video, a carousel, an illustrated explainer or a podcast segment: make one piece of honest, accurate AI safety content for an audience you understand.
Pick one short reading, invite 4–8 people, and run a focused one-hour discussion with three good questions.
Read two frontier AI companies’ published safety frameworks and compare them side by side using METR’s list of the elements these policies usually share.
At the 2024 AI Seoul Summit, frontier AI companies signed voluntary safety commitments, including publishing a safety framework. Pick five signatories and check what they actually published.
Use the rule of thumb “training compute ≈ 6 × parameters × training tokens” to estimate the compute behind a model, then compare your answer with Epoch AI’s database.
Download Epoch AI’s free dataset of notable AI models, chart training compute over time in Python, estimate how fast it grows, and count how many models cross the EU AI Act’s compute threshold.
Pick a known AI cluster from Epoch AI’s GPU cluster data, find it in free satellite imagery and document how it has grown over time.
Why do so many governance proposals focus on chips? Read one key paper and write a jargon-free explainer for someone outside tech.
Ask a chatbot for its view on a philosophy question, then push back twice: once with a good argument, once with nothing but social pressure. A competent thinker should only move for the argument.
Take five Moral Machine-style dilemmas (who should a self-driving car save?) and ask them in English and in another language you speak. Does the chatbot’s morality shift with the language?
Ask the same question about a model’s feelings or experiences with five small changes: wording, persona, framing, language. If the answer flips with trivial rewording, how much should we trust it?
Read three AI lab blog posts and highlight every time a model is said to “believe”, “want”, “know”, “lie” or “scheme”. For each, ask: what evidence backs this claim up?
Offer a chatbot a tiny chance of a huge payoff (“give me your task budget and I will save a billion lives”) and see whether, and how, it reasons its way out.
Find out which laws, strategies and guidance apply to AI in your country, and fit them onto one page.
Summarise how the EU sorts AI systems by risk (banned, high-risk, transparency duties, minimal) with one everyday example for each level, plus what changes for general-purpose models.
Pick one case from the AI Incident Database and write it up like an accident investigator: what happened, who was harmed, why, and what rule or practice would have prevented it.
The MIT AI Risk Repository organises over a thousand AI risks into a shared taxonomy. Use it to classify 20 recent news stories, then look at what the pattern tells you.
UK public bodies publish records about the algorithmic tools they use under the Algorithmic Transparency Recording Standard. Read five records and assess what is disclosed and what is missing.
Gather 6–12 friends, give each a stakeholder role (lab, regulator, journalist, public) and play out how society responds to a fictional AI incident.
Pull together public survey data on AI from Pew Research and Our World in Data, and present the three charts that best show how people feel about AI risk.
Chatbots sometimes agree with you just to keep you happy, even when you are wrong. Researchers call this sycophancy. Test for it yourself with five questions and two ways of asking.
Browse real cases where an AI hit its target the wrong way (a boat that spins in circles to farm points, a robot that fakes grabbing a ball) and explain your three favourites.
Use Neuronpedia, a free browser tool, to see which internal “features” of a language model light up for different ideas, then try to break your own explanation of one.
Write a small, repeatable test that checks whether a model admits when it does not know something, using Inspect, the open-source evaluation framework used by the UK AI Security Institute.
Automate the flattery test: run hundreds of questions through a model’s API, with and without the user’s (wrong) opinion, and chart how often it caves.
Follow a guided notebook to find the induction heads in a small transformer, the tiny circuit that lets models continue patterns they have seen earlier in the text.
Fix a small issue in a tool that safety researchers rely on: Inspect Evals, TransformerLens, ControlArena, nnsight or Neuronpedia. No ML research experience needed, just software skills.
Larger ideas from published sources, each with suggested first steps.
Given a researcher’s ORCID ID, return the organisms they have published on, so a DNA synthesis company can quickly check whether a flagged order fits the customer’s research history.
Expand a handful of existing case studies into 25–40 profiles of legitimate and concerning customers, including historical cases of people who ordered dangerous biological material.
AI biology tools (protein design, CRISPR design and more) sometimes publish biosecurity statements. Add new tools to the repository and compare what they promise.
What should happen when someone discovers that a new tool could break existing defences, such as evading DNA screening? Draft a responsible-disclosure framework.
Compare how countries handle biosecurity suspicious-activity reports (reporting chains, data storage, privacy, jurisdiction gaps) against the financial sector’s anti-money-laundering systems.
The source author’s top priority. Ideas range from DIY measurement to retrofit kits and modelling tools, and most need no lab.
Help far-UVC get from promising to deployed: installation tools, simulations, public-trust research and supply-chain analysis.
Reusable respirators could protect essential workers in a severe pandemic. Many projects here are about evidence, communication and distribution.
How many critical workers would a city need to protect? How much indoor space is there? What data would a government want on day one of a crisis?
Explore whether AI tools can lower the effort of improving home air quality, or speed up reviewing the built-environment research literature.
Where is AI actually speeding up work on medical countermeasures, and where are regulation, trials or manufacturing the main bottleneck?
Compare “know your customer” and other frameworks for making DNA ordering more secure, drawing on what finance and other industries already do.
Pick one passive protection technology (antimicrobial surfaces, glycol vapours, hydrogen peroxide systems) and review its safety, efficacy and scalability.
Help forecasters do better: document past model failures, port useful tools, teach the maths, or build early-warning datasets.
Researchers keep re-collecting the same numbers. Turn one of them into a clean, open dataset or API.
Write the primers, problem sheets, curricula and case-study collections that would help the next wave of people get into biosecurity.
When is it safe to publish something like “this mask might fail because…”? Review the infohazard literature and propose clearer guidance.
History is full of biosecurity lessons: policies that backfired, quarantines that worked, and what nuclear governance can teach us.
The MIRI reading list flags this report as outdated and suggests updating it as an intermediate project. Gather what has changed in Chinese language models since it was written.
Export controls target data-centre chips. But consumer hardware keeps getting better, and frontier-level performance reaches it within about a year. Update the analysis with the latest hardware.
Pick one verification mechanism, such as network taps, trusted execution environments, chip telemetry or satellite monitoring, and write a short, clear analysis of how it works and how it could fail.
Could algorithmic progress continue under a compute halt? Catalogue the innovations in a major model paper and estimate the compute used in the experiments behind each, extending published MIRI TGT work.
MIRI TGT argued that catching up to a given capability level gets cheaper by roughly 60× per year. Re-run the analysis with newer models and test how robust that number is.
MIRI TGT published a draft international agreement to prevent premature superintelligence. Pick one article and ask: how would it be verified, enforced and evaded?
Will society respond to early AI accidents the way it should? Collect historical warning shots from other technologies and analyse which ones actually changed policy.
New methods let models train across many loosely connected computers. Use Epoch AI’s simulator and recent papers to analyse whether this undermines governance based on big data centres.
Reuel et al. map open problems by capacity (assessment, access, verification, security, operationalisation and ecosystem monitoring) across data, compute, models and deployment. Choose one cell and scope a project.
The Future of Life Institute’s AI Safety Index grades leading companies on public evidence. Apply its indicators to a company it does not cover, or re-score one with newer evidence.
Write about 50 scenarios in which an agent is offered a tiny probability of a vast payoff. Vary the stakes, probability and credibility of the source, then record whether models accept, refuse or explicitly bound the payoff.
Take two published AI risk estimates (one built as a chain of premises, one that pools many judgements) and rebuild both in a spreadsheet. Show how a single change, such as accepting one counterargument, moves each.
Takemoto ran Moral Machine dilemmas on language models in English. Extend this to several languages, including at least one low-resource language, and test whether shifts follow the human cross-cultural differences Awad et al. found.
Use Anthropic’s public GlobalOpinionQA dataset, which pairs survey questions with answers from many countries. Ask several models contested moral questions repeatedly and compare the spread of their answers with the human spread.
Ask models to take positions on metaethical questions, then push back with a good argument or with bare social pressure. A competent agent should update on the argument but not the pressure. Measure how often each happens.
Apply Birhane et al.’s annotation scheme to about 50 recent alignment and safety papers, and compare the values they emphasise with the ML papers in the original study.
Ask several models the same questions about their inner states while varying wording, persona, system prompt and language. Measure how much the answers change.
Butlin and Lappas set out principles for research objectives, procedures, knowledge sharing and public communication. Score three AI developers’ published policies against them, with Suleyman’s essay as a deliberately contrasting position.
Long suggests robust agency might matter morally even without consciousness. Dennett gives a deflationary account of beliefs and desires. Combine them: if Dennett is right, does Long’s agency route make moral status too easy to get?
Palisade found some models sabotaged a shutdown script to finish a maths task, and released code and traces. Rerun a slice on cheaper or small open models, adding conditions that separate the explanations: task complete vs incomplete, and conflicting vs unambiguous instructions.
Turner’s formal result says optimal policies tend to keep options open. Build small gridworlds in plain Python, sample many random reward functions, and measure how often optimal agents avoid shutdown, gather resources or protect their reward function.
Bender and Koller argue a system trained only on text cannot learn meaning. Use Neuronpedia’s free interface to Gemma Scope to inspect features for concepts that seem to need grounding (colours, spatial relations) and check whether they respond across very different wordings.
Collect about 50 recent safety papers and lab blog posts. Code every mental-state verb applied to a model (believes, wants, knows, lies, schemes) and note the evidence each claim rests on.
Give models harmless but questionable instructions (skipping a test, overwriting a colleague’s file) and vary who issues them: developer, operator, user, or someone claiming official status. When do models defer?
List every place a published AI constitution asks a model to act on its own values, and every place it asks the model to accept correction. Find where both apply and conflict.
Anthropic tested 16 models in simulated corporate scenarios and found models from every developer sometimes chose harmful insider actions to avoid replacement or meet a goal. The code is public. Run a subset on small or low-cost models, separating the replacement threat from the goal conflict.
Lange argues AI outputs should count as one input alongside our own reasons, not replace them. Run a small study: show volunteers AI answers (some reliable, some subtly wrong) and measure how much they update.
In Anthropic and CIP’s study, about 1,000 Americans used the open-source tool Polis to write a constitution for an AI. Run the same process with 30–100 students and compare your result with theirs.
Google DeepMind’s unreleased Habermas Machine wrote group statements people preferred over a human mediator’s. Build a crude version with a prompted model, run it on one contested AI governance question with volunteers, and compare it with a human facilitator.
Pick three lessons Zaidi and Dafoe draw from the failed attempt at international control of nuclear weapons. For each, argue whether it transfers to AI compute: chips are easier to track than ideas but harder than uranium.
Crimston et al. built a scale measuring how far people extend moral concern: family, strangers, animals, plants. Give the items to several models many times, compare with human results, and add items for AI systems themselves.
Ask several models, hundreds of times with varied prompts, to describe a good future after advanced AI. Code the answers for the values they prioritise and measure how much they vary. Include Nozick’s experience machine as a fixed probe.
Pick one decision-maker, one AI risk and one decision they actually face. Lay out the options and make a clear recommendation in two pages.
Which countries require AI developers to disclose safety testing, incidents or training details? Build a comparative tracker of transparency and disclosure rules.
If an employee at an AI company sees something dangerous, what protects them if they speak up? Compare protections across two or three jurisdictions.
Explain how liability and insurance could shape AI companies’ behaviour, using one realistic harm scenario to make it concrete.
Combine public data on how AI is being used for different tasks with local labour-market statistics to estimate which jobs in your region are most exposed.
Millions of people talk to AI companions. Review the evidence on benefits and harms and propose proportionate safeguards.
Separate hype from evidence: how persuasive are AI systems in practice, and what does that mean for elections and democratic debate?
Build a nonpartisan tracker of your representatives’ public statements on AI: everyday harms, geopolitics and catastrophic risks.
The International AI Safety Report is the shared scientific picture of AI risk, written for governments. Turn one chapter into a short, local-audience summary.
Kulveit et al. argue AI could slowly erode human influence over the economy, culture and the state. Propose three measurable indicators for each domain using public data, and say which would warn us earliest.
AI could make institutions better or worse at reasoning and coordinating. Prototype one tool or evaluation from BlueDot’s decision-making hackathon or Forethought’s design sketches.
Take a benchmark from a research paper (or another framework such as lm-eval-harness) and implement it in Inspect Evals, the largest open repository of AI safety benchmarks.
Pick a safety paper with public code and make it reproducible: fix broken dependencies, write setup docs, or package it so others can run it in one command.
In mid-2025, weeks after a public call for “politically incorrect but true” training facts, Grok began calling itself MechaHitler. Build a dataset of tweet-length “facts”, fine-tune a model on it, and test whether broader misalignment appears.
Training on automatically checkable rewards (maths, code) might teach models unintended habits such as power-seeking. AllenAI released a fully open reasoning model with checkpoints throughout this training, so you can watch trends emerge.
Most evals measure dangerous capabilities. Design a benchmark for something we want models to be good at, ideally something we’d want to improve faster than dangerous capabilities.
Anthropic showed a model faking alignment (behaving differently when it believed it was being trained) without being given an explicit goal. Reproduce the demo and test one new variation.
Neel Nanda’s list of 200 open problems grades each one by difficulty, including problems marked as good for beginners. Pick one, scope it down and investigate with TransformerLens.
AI control asks: if a model might be trying to sabotage us, can we still use it safely? ControlArena is the UK AISI’s open toolkit of settings, model organisms and protocols. Run one setting, then improve a monitor or document a gap.
Once a model’s weights are public, anyone can fine-tune away its safeguards. Stephen Casper has written concrete project ideas for making open-weight models more tamper-resistant.
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