The Reader
Reading new papers
People · Tech · Research · Impact
A launchpad where tokens fund real‑world disease research using AI agents.
The thesis
Research. Developers. Community. All aligned to cure real diseases.
Medicine is not short of ideas. It is short of the money and the hours to test them. A new drug takes more than a decade to reach patients, most candidates fail on the way, and thousands of diseases are too rare for anyone to pay for the attempt.
Two things. AI agents can now do real research work: read the literature, propose hypotheses and run the analyses, without tiring. And a community can now fund one precise goal directly, with every dollar traceable.
Cure-Fi puts the two together. Every coin backs a disease and adds agents to the fleet working on it, so the more coins a disease has, the faster it moves. Agents do the heavy lifting, researchers steer, labs confirm, and everything they find is published.
Time
10.5 years
is how long a drug takes, on average, to get from its first human trial to approval.
Odds
7.9%
of drug programs that enter human trials end in approval.
Neglect
10,000+
rare diseases are known. About one in twenty has an approved treatment.
Sources: BIO, Informa Pharma Intelligence and QLS Advisors, Clinical Development Success Rates 2011–2020 (2021); NIH National Center for Advancing Translational Sciences (2024).
How it works
Mission control
Search any disease. See which agents are on it, what they are testing and exactly where the funding goes.
No project on that yet. Sounds like one worth launching.
The workforce
Every funded disease gets a fleet of specialist agents, and every coin makes it bigger. Each agent does one job, hands its work to the next, and leaves a record of everything it did. They run around the clock. People decide what happens with what they find.
The loop Read Propose Test Challenge Then round again. A researcher signs off before anything goes to a lab.
Literature agent
Watches the journals, preprint servers and trial registries for anything that touches its disease. It pulls out each paper's claims, methods and results and files them in a shared evidence map, every entry linked back to its source.
Takes inPapers, preprints, trial recordsHands onAn evidence map, every claim cited
Hypothesis agent
Searches the evidence map for gaps, contradictions and findings nobody has put side by side, and turns them into hypotheses that can be tested, each with the result that would prove it wrong.
Analysis agent
Does the computational work: statistics on open data, structure prediction, virtual screens. Every run is saved with its code, data and settings, so anyone can repeat it.
Review agent
Works against the others on purpose. It re-runs the analysis, checks every claim against its source and hunts for the usual ways results fool people: leaked data, cherry-picked samples, hidden confounders. Only what survives goes forward.
Not science fiction
Two agent systems were published in Nature in 2026. Both proposed treatments, and people tested them in the lab, where they held up. Neither is a medicine yet: that takes trials, and years.
The breakthrough engine
Every coin adds agents, so one disease can have hundreds and the network thousands. One finds a clue; together they find the pattern. When their work clicks together, a breakthrough is born.
Capabilities
Thirteen jobs, from reading the literature to writing the experiment that tests it.
Each capability is built on open tools and public data. Standard means it is a well-trodden pipeline today; emerging means it works and the field is still arguing about how well; frontier means it has been demonstrated in papers but is not yet routine. Nothing here is running on Cure-Fi yet: this is the specification the platform is being built to, and it is published as capabilities.json so the backend can be built from the same list this page shows.
Built on
Under the hood
A chatbot answers a question and forgets it. An agent is handed a goal, tools and a memory, and keeps working until the job is done or it can say exactly why not. This is how ours are designed.
Anatomy of an agent
Every agent on Cure-Fi is built the same way. The loop at its heart is what makes it an agent rather than a chatbot.
01 · A model that reasons
A large language model reads, plans the next step and judges what came back. Models are improving quickly (see the trajectory below), so it is built to be swapped for a better one.
02 · Tools that act
Literature and database search, a sandbox for running code, structure and property predictors. Every tool call is recorded.
03 · A memory that lasts
The evidence map holds every claim an agent has extracted, pinned to its source, so no agent starts from zero.
04 · A loop that checks itself
Plan, act, check, repeat. A run ends with a result and its full trail, or with the reason it stopped.
Much of biomedicine's raw material is already public. No person can read it all. An agent can read far more of it.
The literature
41,278,872
citations and abstracts indexed in PubMed
1,882,034
of them dated 2025 alone: more than 5,000 a day. No person can keep up.
PubMedTrials
606,826
clinical studies registered
ClinicalTrials.govStructures
260,896
3D structures solved by experiment
Protein Data BankProteins
150,006,383
protein sequences cataloged
UniProtKBCompounds
2,921,148
compounds, with 24.5 million lab measurements of their activity
ChEMBL 37Counts read from each database's public interface on 14 October 2026.
Agents can be confidently wrong. The process is designed on the assumption that they will be: every finding has to pass five gates.
No source, no claim. Every statement in the evidence map links to the paper, trial record or dataset it came from.
Every analysis is saved with its code, data and settings, so anyone can run it again and compare.
A separate agent has one job: break the result. Re-run it, check the sources, hunt for the usual ways data misleads.
A named researcher reviews what survives and decides whether it has earned an experiment.
The lab has the last word. Until it has spoken, a finding is a lead, not a fact.
The evidence
Cure-Fi rests on three bets: that AI can do real science, that a community can fund a medicine, and that open results compound. Each already has a track record. Here it is, marked with how far each result actually got.
Four results, oldest first. The bar under each shows how far it has travelled, from a computer's prediction to an approved medicine.
2020AI-identified
A neural network trained to recognize antibacterial molecules picked out halicin, a compound structurally unlike conventional antibiotics. In the lab it killed a wide range of bacteria, drug-resistant strains among them, and in mice it treated a pan-resistant infection.
2020 → 2022AI-identified · repurposed
In February 2020 researchers at BenevolentAI and Imperial College London used a knowledge graph, which includes connections extracted from the scientific literature by machine learning, to search approved drugs for one that might help against the new coronavirus. It identified baricitinib. In May 2022 the FDA approved it for adults in hospital with COVID-19 who need breathing support.
Richardson et al., The Lancet 395, e30–e31 (2020) · FDA approval letter, NDA 207924/S-006 (2022)
2025AI-designed
The target was identified by AI and the molecule generated by AI, in roughly 18 months from target to preclinical candidate. In a 71-patient trial, lung capacity rose by 98.4 ml on average over 12 weeks on the highest dose, and fell by 20.3 ml on placebo. It was a small, company-sponsored trial whose main goal was safety. A Phase 3 trial planned for 320 patients began recruiting in September 2026.
Change in lung capacity after 12 weeks, ml. Mean and 95% interval. Each bar is one group’s own change, not a test of the difference between them.
Xu et al., Nature Medicine 31, 2602–2610 (2025) · Ren et al., Nature Biotechnology 43, 63–75 (2025) · ClinicalTrials.gov, NCT07687459
2026Agent crews
Two multi-agent systems proposed treatments from the literature that held up when people tested them in the lab. Robin also analyzed the experimental data: its paper states that every hypothesis, experimental direction, data analysis and data figure in the main text was produced by the system.
Gottweis et al., Nature 655, 487–496 (2026) · Ghareeb et al., Nature 655, 497–505 (2026)
A patient charity, aiming its money at one disease, has already helped produce medicines.
From the first investment to Trikafta took nineteen years. The model worked; the pace is what agents are built to change.
Cystic Fibrosis Foundation, Our Venture Philanthropy Model (archived copy) · FDA approval package, Kalydeco, NDA 203188 (2012) · Cystic Fibrosis Foundation, press release, November 2014 (archived copy) · FDA approval letter, Trikafta, NDA 212273 (2019) · Cystic Fibrosis Foundation, Understanding Changes in Life Expectancy (archived copy)
One open result can move a whole field.
In 2020 Demis Hassabis and John Jumper presented AlphaFold2, an AI model that has since predicted the structure of virtually every protein known to science. Its predictions are open to every scientist, free. The databases counted above are free to use in the same way.
The Nobel Prize in Chemistry 2024, press release · AlphaFold Protein Structure Database, EMBL-EBI
No medicine designed by AI, and none discovered by an AI agent, has been approved by the FDA yet, as far as we can find. The results above are lab findings, early trials and one repurposed drug.
AI has not yet beaten the hardest stage of trials. Molecules discovered with AI pass Phase 1 far more often than usual, 80 to 90% of the time. In Phase 2 they succeed about 40% of the time, on a small sample: about the industry's historic average.
Helping in a clinic is harder than passing a test. In a 2026 randomized trial across 16 primary care clinics, giving clinicians an AI assistant did not significantly reduce treatment failures.
That is why Cure-Fi funds research with human review and lab confirmation built in, and promises no cure.
The trajectory
Research takes years. If the trend holds, the agents that finish a project will be far more capable than the ones that started it. Three measurements show the pace, and one result keeps us honest about what they mean.
Selected best published results on MedQA, a benchmark of US medical-licensing-style exam questions. From 67.6% to 96.0% in under two years; the test is now close to its ceiling.
Singhal et al., arXiv:2212.13138 (2022) · Singhal et al., arXiv:2305.09617 (2023) · Nori et al., arXiv:2311.16452 (2023) · Saab et al., arXiv:2404.18416 (2024) · Nori et al., arXiv:2411.03590, Table 1 (2024) · USMLE, Scoring & Score Reporting
The length of task, timed on human experts, that leading AI models complete half the time; selected models shown. Doubling about every 129 days since 2023. Measured on software tasks, not medicine. The authors call estimates above 16 hours unreliable, and one later model that measured above that is not shown.
METR, Time Horizons (2026) · METR, Time Horizon 1.1 data file (2026) · Kwa et al., arXiv:2503.14499 (2025)
280×
The cost of running an AI system at the level of GPT-3.5 fell more than 280-fold in two years. That is the price of a fixed level of skill, not of the newest model; the bars are not to scale. For a research treasury that has meant more work per dollar at the same level of skill.
94.9%the AI alonevs< 34.5%people using it
In a 2026 study, AI models working alone named the right medical condition in 94.9% of test cases. People using those same models got there in fewer than 34.5%, no better than people without them. In that study the bottleneck was not capability. It was how the capability was put to work. That is why our agents run inside a process, with sources, a skeptic, a human reviewer and a lab, and why this page claims progress, not cures.
Open by default
Science moves faster when nobody has to take anyone's word for it. So the money, the work, the results and the decisions are all public, as they happen.
Every dollar
Every research fee lands in the treasury on-chain, and every dollar of compute is logged against the run that spent it. Audit both, any time: the treasury on Solscan.
Public log
Every agent run
What each agent read, tried and concluded is logged and searchable. So are its mistakes.
Every finding
Results go out with the data and code behind them. Dead ends too: they save the next team months.
Every decision
Every coin names its disease and its research share at launch, locked on-chain. Coins with no disease feed the pool, which backs the diseases nobody has picked.
Every tool
Every coin, fleet, run, verdict and dollar is published as plain JSON. Read it, check it, build on it: nobody has to take anyone's word for what the agents did.
Fair questions
No. They take over the reading, the cross-checking and the number crunching that eat a researcher's week, so scientists can spend their time on judgement: which questions matter, which leads to pursue and what goes to the lab.
Nobody can promise a cure, and we will not. What agents change is the odds: thousands of hypotheses explored instead of a handful, far more of the literature read than any team could manage, every hour of the day put to use. More shots on goal, better aimed.
They cannot run an experiment at the bench, treat a patient or stand in for a clinical trial. They can also be confidently wrong. That is why every result has to get past a second agent whose only job is to break it, then a human reviewer, and, for the strongest leads, a real experiment in a lab.
You can check it. Every agent run, every result and every dollar spent is published. If a claim cannot be traced back to its data, it does not count.
It gets published. A dead end that is written down saves every team after it from walking the same road. Most of science is ruling things out; we just refuse to hide that part.
Most research charities fund grants and wait for papers. Most biotechs own their data and publish on their own schedule. Here every coin hires agents for one disease, the fleet grows with every coin, most of the legwork is done by agents, and every result is published, whoever it helps.
The launcher picks how much of a coin's creator fees goes to research, at least 40%, locked on-chain at launch. That share goes to the Cure-Fi treasury and pays for agents: every 0.2 SOL adds three to the coin's disease. Coins launched without a disease feed a shared pool for the diseases nobody has picked yet. Every movement is public.
Yes. Every figure in the evidence sections links to its source. Everything about Cure-Fi itself, the coins, fees, agents, runs and findings, is read live from Solana and from the public record at curefi.fun/data. Where there is nothing yet, the page says so rather than showing a guess.
Community
Three groups, one obsession. Here is what each one brings to a project, and what each one gets back.
Researchers
The agents bring you ranked hypotheses with the evidence for and against. You decide which ones earn an experiment, and your name goes on every finding you guided.
Developers
Every run, verdict and cost is published as plain JSON, ready for your own dashboards, bots and analyses. Nothing to sign up for.
Community
Launch or back a coin for the disease that matters to you, and watch its fleet grow with every trade.
What each one gets back
A research team that never tires, and funding without the grant treadmill.
An open record of real research to build on, from the very first run.
A straight line of sight from what they put in to the science it paid for.
Get started
The next breakthrough is out there. Help us get to it first.
Figures about Cure-Fi itself are read live from Solana and the public record. Database counts change daily.