A lab where the first experiment happens on a screen
Somewhere between a research paper and a bathroom shelf sits MetaNovas. On any given morning, its software is reading - chewing through millions of scientific documents, mapping the tangled relationships between a protein, a pathway, and a wrinkle. By the time a human scientist arrives, the machine has already proposed a few molecules worth caring about, argued why they might work, and quietly discarded the ones that won't. The pipettes come later. Sometimes much later.
That is the bet MetaNovas (legally MetaNovas Biotech) makes every day: that the most expensive part of discovery is not the lab work, but choosing what to put in the lab in the first place. It is a small company - around a dozen people - with an outsized claim. It wants to design medicine, peptides and beauty actives with computation first, biology second.
Discovery is mostly a record of things that didn't work
Here is the unglamorous truth the industry rarely puts on a slide: most drug and ingredient candidates fail. They fail in screening, they fail in the lab, they fail in people. Each failure arrives expensive and late, after months of synthesis and assays. The traditional answer has been to fail faster by spending more. MetaNovas proposed a different one - fail earlier, where failure is cheap and lives only inside a model.
The founders had seen the slow machinery up close. Biology generates more literature than any team can read, more data than any spreadsheet can hold, and more dead ends than anyone likes to admit. The knowledge to make a better decision usually exists. It is simply scattered across papers nobody has time to connect.
A Stanford dropout and an MIT physicist walk into biotech
MetaNovas was founded in 2021 by Meijie Wang and Lun Yu - a pairing that reads almost like a setup for a joke, except the punchline is a working platform. Wang, the CEO, is a Stanford dropout who had worked on AI infrastructure at NVIDIA and R&D software at Olympus. Yu, the CTO, holds a PhD in Nuclear Science and Engineering from MIT and spent years as a senior data scientist steering large digital-health products at Optum, Rally Health and Aetna.
Neither came from the classic biotech mold, which is rather the point. They looked at drug and ingredient discovery the way engineers look at any slow, lossy pipeline - as something that could be instrumented, modeled and front-loaded. Their wager was that an AI which understood biology well enough to justify its reasoning could move the decisive choices upstream, before the expensive part begins.
Four engines, all named Meta
The platform is less a single product than a relay team. Each engine hands off to the next, turning a wall of literature into a short list of molecules worth synthesizing. The naming is unsubtle - everything starts with “Meta” - but the division of labor is clean.
MetaNLP
Reads millions of scientific documents and converts dense biology into structured, queryable data. The tireless graduate student.
MetaKG
A biomedical knowledge graph that connects biology, chemistry and disease, surfacing links a human would never have time to draw.
MetaOmics
Designs precision-targeted products from multi-omics data, tuned for specific demographics rather than the mythical average person.
MetaPep
Combines deep learning and molecular simulation to generate and screen bioactive peptides for developability - before any are made.
Stacked together, they support a discovery loop with four moves: structure the evidence, generate candidates under real constraints, screen them predictively for whether they can actually be made, then hand survivors to the wet lab for mechanism-anchored validation. The model proposes; biology disposes; the model learns. Applied to drugs, it hunts novel targets and repurposes existing compounds for new indications. Applied to beauty, it engineers peptides aimed at the biology of skin aging - the work behind Yu's 2026 Paris talk, “Reprogramming Youth.”
Milestones
Meijie Wang and Lun Yu found MetaNovas Biotech, betting that AI can front-load the hardest decisions in discovery.
Recognition arrives: a showing at the IFSCC Congress, the “Best AI-Led Functional Food Development Firm” nod from LUXlife, a selection for the MIT Startup Showcase in Seoul, and a place among 250 most promising digital-health ventures.
Closes a Series A led by Hillhouse Ventures, with Baoding Ventures participating - capital to scale the platform and pipeline.
CTO Lun Yu presents “Reprogramming Youth: How AI-Engineered Peptides Unlock Longevity Beauty” at in-cosmetics Global 2026 in Paris.
Brands on your shelf, numbers on a deck
A discovery platform is only as convincing as the people willing to use it. MetaNovas reports strategic relationships with a roster of consumer-health and beauty heavyweights - among them L'Oreal, Beiersdorf, Haleon, Takeda and Unilever - the sort of names whose products already sit in medicine cabinets worldwide. For a roughly twelve-person team, that is a notable set of doors to have opened.
Where MetaNovas wants the failures to happen
A stylized look at the company's core argument: shift the bulk of failure out of the costly wet lab and into cheap, fast in-silico screening. Bars are illustrative of the thesis, not audited figures.
Read: catch most dead ends on a screen, not in a beaker. Cheaper to be wrong early.
Fewer good ideas dying in the lab
Strip away the platform names and the mission is almost stubbornly practical: shorten the slow, costly, failure-prone front end of biology so that more promising molecules survive long enough to reach people. MetaNovas frames itself as a biopharma company at heart that happens to also make clinical-grade products for everyday wellness - drugs and disease targets on one side, cosmeceuticals, nutraceuticals and functional foods on the other.
It is a dual identity, and the company seems comfortable with the tension. The same engines that hunt disease targets also design the peptide in a serum. The science doesn't much care whether the end product is regulated as a drug or sold as a cream. The discipline is the same: read everything, reason about mechanism, predict before you build.
What you can actually do with it
- Find novel targets - mine the literature and knowledge graph for disease mechanisms worth pursuing.
- Repurpose existing drugs - surface new indications for compounds that already exist.
- Design bioactive peptides - generate and screen candidates for skin, longevity and functional uses before synthesis.
- Formulate for specific people - use multi-omics signals to target products at defined demographics, not averages.
- De-risk R&D - move the expensive failures upstream into fast, cheap in-silico screening.
The bench is moving to the screen
The wider field is converging on this idea - Insilico Medicine, Recursion and others are all variations on the theme that biology can be reasoned about, not just experimented on. MetaNovas's particular angle is breadth: a single reasoning stack pointed at both medicine and the far larger, faster-moving world of beauty and consumer health, where it can ship, learn and iterate without waiting a decade for a clinical trial.
If the thesis holds, the interesting consequence is cultural as much as scientific. Discovery stops being a story told mostly in failures and starts being one told in better first guesses. That is a quieter revolution than the marketing usually allows - but a real one.
Return to that morning lab. The software has been reading all night again. By the time the scientists arrive, the candidate list is shorter, the reasoning is attached, and the obvious mistakes are already gone - made and unmade inside a model that costs nothing to be wrong. The pipettes still come out. They just come out later, and for fewer molecules, and with better odds.
That is what MetaNovas is changing about the scene it walked into: not the existence of failure, but its timing and its price. The pipettes wait. The reading never stops.
Note: MetaNovas Biotech is an early-stage company and several figures here - total funding, partnership scope, employee count and the 45% R&D figure - are drawn from public profiles and company statements and should be treated as approximate. The in-silico screening chart is illustrative of the company's stated approach, not audited data. Headquarters and contact details reflect the records provided; the company also has roots and operations associated with Shanghai, China.