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Lila Sciences
Aiming at "scientific superintelligence" with AI and automated labs for materials, chemistry and life sciences: reading the track record apart from the slogans

Lila Sciences (written "LILA" on its website) is a privately held U.S. company that says it will take on the whole flow of AI forming hypotheses, automated labs running the experiments, and learning from the results. Its website calls its goal "Scientific Superintelligence", but that is a phrase expressing company philosophy, not a state that has been reached. The concrete result in materials that primary sources let us confirm is a search for catalysts for hydrogen production (September 2026). This profile uses only the company's official announcements and a preprint (a paper not yet peer reviewed), and keeps philosophy, claims and confirmed facts apart.

Sources: Lila Sciences' website announcements (September 2025 to September 2026) and an arXiv preprint (24 September 2026), used as primary material. Checked 22 October 2026. Last updated October 2026.

What this article covers
  1. Lila Sciences in 30 seconds, and where it stands in materials informatics
  2. The logo and how the name is written
  3. Where the company sits in the materials informatics field
  4. Scale
  5. Resources committed to materials informatics
  6. What it has done so far
  7. What comes next
  8. What the company is aiming for in materials informatics
  9. Map of materials informatics partnerships
  10. Technologies, products and services
  11. The risks this company carries
  12. Glossary, references and claim-to-source audit

1. Lila Sciences in 30 seconds, and where it stands in materials informatics

LEGAL NAMELila Sciences, Inc.As in the website copyright line. Also written "LILA"
LOCATIONSSan Francisco
Cambridge (U.S.)
London
The website's contact page
LISTINGPrivately heldRevenue and valuation not disclosed
CATEGORY IN THIS FIELDAutonomous experiments & robotics (main)
Foundation models & compute (secondary)
Our own classification Our calculation
ORIGINFounded 2023
Public in March 2025
The company says it began inside Flagship Pioneering
TOTAL RAISEDUS$550 millionUS$200M seed plus US$350M Series A (company, October 2025)
MAIN MATERIALS RESULTCatalyst search for hydrogen production
2,942 evaluated in 3 months
Company's claim. A preprint exists (not peer reviewed)
HOW IT IS OFFEREDCatalyst / CreationUse of its AI and labs, and discovery work for clients
The one thing to grasp first

Materials informatics (MI) is a way of searching for new materials by gathering data, using AI to predict and design candidates, and testing them by experiment. Lila Sciences wants one company to own all of it, and it applies the approach to science as a whole, including drugs and chemicals, not only materials Sourced. Its website uses big words: "scientific superintelligence" and "the world's most advanced operating system for science". This profile treats such phrases as the company's claims and philosophy, and reads them apart from the facts with measured values, counts and conditions (chapter 10). On its hydrogen-catalyst result the company itself says plainly that it is "not a finished technology and not a commercial product".

2. The logo and how the name is written

A note on names: the legal entity is Lila Sciences, Inc., and the website headings write it as "LILA" in capitals. The website's logo is white lettering spelling "L I L A" with wide spacing (it does not include the word "Sciences"), and because it is used on dark backgrounds it is also placed here on a dark panel. To avoid confusion with other companies and institutes with similar names, this article writes "Lila Sciences" throughout.

Official site: https://www.lila.ai/

3. Where the company sits in the materials informatics field

First, the figure sorts MI companies into four types and shows where Lila Sciences sits. To keep the company's claim (scientific superintelligence) apart from the business that can actually be confirmed (linking AI with labs), the types are our own classification.

Four types of company involved in materials informatics Strengths and weaknesses differ by where a company sits between data, design and experiment Foundation models & compute MI software & materials AI Autonomous experiments & robotics Industrial users AI from data and compute Software and materials AI Robots run experiments Battery, chemical, chip Google DeepMind / Microsoft Meta / NVIDIA Citrine / Schrödinger Preferred Networks / CuspAI Chemspeed / Radical AI Periodic Labs / Lila Sciences SES AI / Mitsui Chemicals Applied Materials Large compute and talent Ease of use and data Experiment throughput Real materials, markets Relies on others to test Depends on client data Capex, reproducibility Short on in-house talent Lila Sciences: mainly Autonomous experiments & robotics, secondarily Foundation models & compute It says it runs a reasoning AI and an automated lab together; its materials result so far is catalyst search
Fig. 1 The four types of company involved in materials informatics, and where Lila Sciences sits. The classification is our own, and the companies named are examples drawn from those covered in this series Our calculation. Lila Sciences says it runs AI and automated labs (AI Science Factory) as one system and applies them to materials, chemistry and life sciences (third box from the left is its main type, the leftmost box its secondary one). This profile covers only the materials side.

Next, the automated experiment loop that Lila Sciences actually ran in its hydrogen-catalyst search, based on the company's account. "PVD (physical vapour deposition)" is a way of making a thin film by evaporating a material onto a substrate.

The "experiment loop" run for the hydrogen-catalyst search Our summary of the company's post and the preprint. The figures are the company's own 1. Synthesis Make 96 samples in parallel by PVD Check composition 2. Pre-test checks Measure the composition and structure of the films 3. Test in acid Measure OER activity and stability in accelerated tests 4. Post-test checks Find what degraded and what held up Results go back to the AI, which ranks the next compositions to make Company's account: up to 100 samples a day, about 240 a week in practice, 17x a standard lab (its claim) In this first campaign, people carried samples between instruments (not fully automatic)
Illustration The automated experiment loop Lila Sciences ran in its hydrogen-catalyst search. It is our summary of the company's post and the preprint, not a third-party assessment.

4. Scale

The company is privately held, so there are no statutory financial filings. Only what can be confirmed is shown Sourced.

ItemDetailSource and type
Founding and launchFounded in 2023. The company says it prepared inside Flagship Pioneering's labs for about three years and went public in March 2025The company's description (About page, Series A posts)
LocationsSan Francisco, Cambridge (Massachusetts) and LondonThe website's contact page. The head office is not named
EmployeesNot disclosed. Leaders' names and titles are on the team pageNo total headcount in official material
RevenueNot disclosedNot stated in any official material. This article does not estimate it
Funding raisedUS$200 million seed, US$350 million Series A, US$550 million in total (October 2025)Company announcements. No valuation is given in official material and this article does not discuss one
ListingPrivately heldNo share information on the website
A caution

The Series A close post carries the date 10 October 2025, but another post on the same website says it was announced on 15 October 2025. Official material does not settle which is right Not yet confirmed. The website's news list also links to outside articles that report a valuation, but this article does not use press-only numbers. The seed post likewise shows 3 October 2025 on the site, while its text says the company went public in March 2025, so the dates do not agree.

5. Resources committed to materials informatics

Lila Sciences spans materials, chemistry and life sciences, and the resources spent on materials alone are not disclosed. What follows is what could be confirmed for the company as a whole, under four headings: people, money, outside investments, acquisitions and joint ventures, and ties to universities and public bodies.

ItemWhat could be confirmedStatus
PeopleLeadership includes CEO Geoffrey von Maltzahn, CTO Andrew Beam and Rafael Gómez-Bombarelli, CSO for physical sciences (also introduced in company posts as an MIT associate professor). John Gregoire is described in the September 2026 post as chief autonomous science officer. The total headcount and the size of the materials group are not disclosedSourced (headcount: not disclosed)
Money (raised)US$200 million seed (Flagship Pioneering and others); US$350 million Series A (co-led by Braidwell and Collective Global, with NVentures, Analog Devices and others). US$550 million in totalSourced (company announcements)
Money (facilities and computing)The company says it will use funds to build more AI Science Factories. Capital spending and the scale of computing are not disclosedCould not be confirmed
Outside investments, acquisitions, joint ventures, divestmentsNone stated in official material. (The Creation offering is said to include launching new companies, but no actual case could be confirmed)Could not be confirmed
Universities, research institutes and public fundingThree projects were selected for Phase I of the U.S. Department of Energy (DOE) Genesis Mission (July 2026), with Caltech, Lawrence Berkeley National Laboratory (LBNL), Northwestern University, Argonne National Laboratory and the National Laboratory of the Rockies (NLR)Sourced (Phase II is Not yet confirmed)

Status of the main models, products and facilities

The table lists name, type, specification, form of release, stage and date, as far as official material allows. Numbers measured under different conditions are not ranked against each other.

NameTypeMain specifications (including company claims)ReleaseStage and date
Lila IrisScientific reasoning modelIn the company's account it combines Bayesian models and language models to balance uncertainty against information gain (hydrogen-catalyst post). Performance metrics and training data: could not be confirmed. The site says it "consistently outperforms other models", with no data or conditions givenNot public. Said to be available through CatalystOffered (company description). October 2026
AI Science Factory (AISF)Automated lab integrating AI and instrumentsFor the hydrogen-catalyst search: a closed loop of synthesis, pre-test characterisation, testing and post-test characterisation. 96 samples made in parallel by PVD. Up to 100 samples a day, about 240 a week in practice. Automation above 90% (preprint)Operated in house. Access offered through Catalyst and othersIn operation. Full automation is under development
CatalystForm of offeringDirect access to Lila Iris and the AISF, plus expert support. Described as "lab as a service", used on demand. No price givenCommercial (by contract)Offered (company description)
CreationForm of offeringLila runs the whole discovery campaign to a client's targets and delivers validated structures, protocols and data. Said to include launching new companiesCommercial (by contract)Offered (company description)
OER catalyst search resultExperimental result (materials)2,942 catalysts evaluated across 53 systems and 26 elements. Six palladium-based families. The lead candidate has run over 1,000 hours in acid (details in chapter 10)Company post and preprintAnnounced. 24-25 September 2026
A materials engineer's view: what is the "1,000 hours" a measure of?

In an electrolyser that makes hydrogen from water, the anode runs the OER (oxygen evolution reaction). It proceeds in a strongly acidic, high-potential environment that dissolves most metals. Today's commercial machines therefore use iridium oxide, which is both active and durable, and iridium is a rare element produced in very small amounts Sourced. The difficulty of the search is a trade-off: the more active a material, the more easily it tends to break down, so both must be measured together before a material can be judged good or bad. In its preprint Lila Sciences takes, as its measure of durability, how long the overpotential (the extra voltage needed beyond the ideal) stays below 0.5 V when 10 mA/cm² flows in 1 M sulfuric acid. But this condition is a test on a small thin film, and real electrolysers are generally run at much higher current densities (our own note). The company itself says it will evaluate the material in a form closer to real use.

6. What it has done so far

WhenWhat happenedMeaning
2023Founded (About page)The company says it prepared inside Flagship Pioneering
From late 2024Began building the AISF and the automated electrocatalysis workflowFrom the hydrogen-catalyst post
March 2025Went public (emerged from stealth). Announced a US$200 million seed roundThe post is dated 3 October 2025 on the site, which disagrees
15 September 2025Announced a US$235 million Series ACo-led by Braidwell and Collective Global
October 2025Series A closed at US$350 million in all; total raised US$550 millionThe date is given as the 10th and the 15th within the same website
22 July 2026Three projects selected for Phase I of the DOE Genesis MissionCatalysis, polyethylene production and semiconductor charge transport. Phase II is a future application
24 September 2026Posted the OER catalyst preprint to arXivNot peer reviewed. The breakdown of measured values can be checked
25 September 2026Published the hydrogen-catalyst search result as a company post2,942 catalysts evaluated in three months; six families identified

7. What comes next

NEXT FOR THE OER CATALYSTEvaluation in a form closer to real useLong-term durability testing continues. No timing given
MORE AUTOMATIONRobots to carry samplesThe company says it is building robots into its labs
OTHER REACTIONSGreen ammonia
Plastics precursors
The company says the method can serve electrocatalysis and electrosynthesis
GENESIS MISSIONPhase I, then Phase IIAn opportunity to apply; no award is assured
What could not be confirmed

None of the following is stated in official material Not yet confirmed.

The number of AISFs and their throughput by site; the headcount of the materials group; revenue and number of customers; the valuation; details of how Lila Iris was evaluated; results at real-world scale for the OER catalyst and the time to a product; the outlook for a Phase II award; how the intellectual property in the catalyst is handled. The company says it will build more AISFs, but gives neither a number nor a date.

8. What the company is aiming for in materials informatics

This chapter includes things the company has not said directly. They are inferences from primary sources, set out with the evidence.

What can be read from itPrimary evidenceType
It positions its labs as the "scorer" (verifier) from which the AI learnsThe Tech page says the AISFs, by running experiments at scale, become "the world's largest verifier for science" and supply the reward signal reinforcement learning needsSourced
It aims at one general-purpose science AI, not tools for individual fieldsThe About page says it is building a single general platform rather than many narrow, domain-specific toolsSourced
Choosing catalysts (OER) as its first materials demonstration looks like an effort to build a track record to win clients and public projectsThe hydrogen-catalyst post calls OER the "first physical sciences project". Two of the three Genesis Mission projects are also about catalysis and electrochemistry. Its offerings are aimed at clients (Catalyst and Creation)Inference
It appears to assume that productisation and volume manufacturing are left to clients and partnersCreation says it delivers validated structures, protocols and data that clients can drop into their pipelines. No in-house manufacturing is mentionedInference
Its materials results should be judged separately from its life-science resultsFigures on the website (for example "900x" and "100%") are metrics for DNA design and are easily confused with materials metrics. No conditions are given that we could findInference
One inference, with its evidence in detail

The reading that "catalysts were chosen first to build a track record" rests on how the company itself frames the problem. The hydrogen-catalyst post calls OER a "very ambitious" choice, yet explains it as a problem well suited to AI search: the combinations of composition, synthesis route and concentration are vast, and the criterion for winning is clear Sourced. Moreover, two of the three projects selected for the Genesis Mission concern electrocatalysis or electrochemistry. From this, this article reads the company as following an order in which it builds a success in catalysis, where "fix the conditions and you can measure it", and then widens to other reactions and clients Not yet confirmed.

9. Map of materials informatics partnerships

Relationships around Lila Sciences Only relationships stated on the website or in official announcements. Press-only relationships are not included Lila Sciences AI and labs Caltech / LBNL Electrochemical refinery (Phase I) Northwestern / Argonne Polyethylene production (Phase I) NLR (national laboratory) Charge transport (Phase I) Flagship Pioneering Origin and seed investor Braidwell / Collective Global Series A co-leads NVentures and others NVIDIA's venture arm, etc. Joint research topic (DOE Genesis Mission Phase I) Investor (dotted line)
Fig. 2 Relationships around Lila Sciences. Sources: Lila Sciences' official announcements (seed, Series A and Genesis Mission). The figure includes only relationships stated in official material, and only representative investor names (see the cited posts for the full lists). Phase I is an early award; a Phase II award is undecided.

10. Technologies, products and services

Prices and contract terms are not disclosed Not yet confirmed. The website shows two forms of offering: Catalyst (use of Lila Iris and the AISF) and Creation (discovery work for clients). The concrete materials result that can be confirmed is the hydrogen-catalyst search below. For background, see our explainers on self-driving laboratories, closed-loop optimisation, applications to catalysts, Bayesian optimisation and active learning, and platinum-group metals and catalysis.

The hydrogen-catalyst search: the company's claims and the numbers in the preprint

ItemWhat is statedType
AimTo find catalysts free of iridium and ruthenium for the oxygen evolution reaction (OER) in acid. The company calls it a problem that has stumped scientists for 50 yearsCompany's claim
Scale2,942 catalysts evaluated across 53 material systems and 26 elements in three months. The first campaign took four months (while the infrastructure was still being built) and the second four weeksCompany post and preprint
SpeedUp to 100 samples a day, about 240 a week in practice. 17x faster than a standard lab, with more than 90% less hands-on human time per sampleCompany's claim (the post gives no conditions for the comparison)
Result (post)Six palladium-based material families lie on or near the Pareto front of activity versus stability. The lead candidate has been tested in acid for over 1,000 hours. The company describes it as matching rutheniumCompany's claim
Result (preprint)In 1 M sulfuric acid at 10 mA/cm², PdOx exceeded 0.5 V overpotential at about 200 hours and NiTaPdOx at about 470 hours. InMnPdOx kept the overpotential below 0.5 V over 1,000 hours. The paper reports these as long-term tests under limited conditionsPreprint (not peer reviewed)
Search methodThe preprint reports that its sequential-learning method advanced the frontier faster than fixed-policy Bayesian optimisation or in-context selection by a language model in retrospective benchmarkingPreprint's claim
LimitsAutomation above 90% with human supervision. In the first attempt people carried samples between instruments, and a person checked safety. The company states it is "not a finished technology or a commercial product"Sourced (company statement)
Reading the catalyst result "in three parts" Our framing, based on the company's post and the preprint The company's claim "Matches ruthenium" "17x a standard lab" No comparison conditions given Figures in the preprint 2,942 catalysts, 53 systems Lead: 1,000+ h below 0.5 V Not peer reviewed; thin films Cannot be confirmed Performance at real scale Independent replication Time to a product Bottom line: values are public, but judging usefulness needs real-scale tests and third-party checks
Illustration How to read the catalyst result. This is our framing, based on the company's post and the preprint.
How to read this result

This result rests on the company's post and a preprint that has not been peer reviewed. The preprint states measurement conditions and times, so it is easier to check than the company's post. But the measurements are tests on small thin films, not on conditions in a real electrolyser, and the company itself says it is "not a commercial product". This article reads it as a report that a composition the AI proposed, and that had not been thought promising, lasted a long time under limited conditions. Until independent repeat tests or results at real-world scale appear, its practical value cannot be assessed.

A materials engineer's view: questions when moving a thin-film search result to a real material

Materials engineers can take three points from this search Sourced.

(1) It measures activity and durability together. If only one is measured, good-looking materials are easy to find. The company includes in the loop a step that examines what degraded after the test, which is a useful design for measurement.

(2) The AI proposed a composition that went against conventional wisdom, and an experiment tested it. Experts had thought palladium unsuited to OER in acid. The company writes that without a lab to confirm the finding, it would have been written off as a hallucination (an AI error). The value of linking prediction and experiment in one place shows in cases like this.

(3) Moving from thin film to powder or electrode is a separate problem. Thin films made by PVD let composition be varied finely, but real electrolysers use powders or electrodes. Whether a result on a thin film is reproduced by a powder of the same composition has to be checked separately (our own note).

11. The risks this company carries

RiskDetailType
Little outside verification of resultsIts materials result rests on the company's post and a preprint not yet peer reviewed. No independent replication could be foundSourced
Distance from thin film to real deviceThe result comes from tests on small thin films; evaluation at real-device scale is still to come. The company itself says it is not a commercial productSourced
Automation is not completeIn the first attempt people carried samples between instruments. Robotics is under developmentSourced
Gap between rhetoric and record"Scientific superintelligence" and "the most advanced operating system for science" are company philosophy. The website's "consistently outperforms others" also lacks data or conditions that we could findSourced
Breadth of businessIt handles materials, chemistry, life sciences, energy and more at once, and the resources given to materials are not disclosedInference
Scale not visible from outsideHeadcount, instrument counts, revenue and valuation are not disclosed, leaving few ways to check progress from outsideNot yet confirmed
Public projects are at an early stageThe Genesis Mission awards are Phase I. Phase II is an opportunity to apply, and no award is assuredSourced
Date mismatches within the websiteThe dates of the seed and Series A posts disagree within the website (chapter 4)Sourced

12. Glossary

Materials informatics (MI)
Searching for new materials efficiently with data and AI, in the flow of data, then prediction and design, then testing by experiment.
AI Science Factory (AISF)
Lila Sciences' name for an automated lab in which AI and instruments run as one system.
Scientific superintelligence
The phrase the company uses for its goal: AI that reasons scientifically beyond human level. It is a philosophy and does not show that this has been achieved.
OER (oxygen evolution reaction)
The reaction at the anode that makes oxygen when water is split by electricity. In an acidic electrolyser, high potential and strong acid dissolve catalysts easily.
Overpotential
The extra voltage needed beyond the ideal to drive a reaction. Smaller is more efficient, and growth over time signals degradation.
PVD (physical vapour deposition)
A method of evaporating a material onto a substrate as a thin film. It is well suited to making many samples with slightly different compositions in parallel.
Pareto front
The boundary of the best trade-offs between two properties (here activity and stability), where improving one means worsening the other. Materials on the line cannot be ranked against each other.
Preprint
A manuscript made public before peer review. Its content may change later.
Genesis Mission
A U.S. Department of Energy effort to link AI, supercomputers and national laboratories to speed up research (as the company describes it).
Platinum-group metals
A collective name for rare metals such as platinum, palladium, ruthenium and iridium, widely used in catalysts.
A concept connecting instruments and experimental planning, not evidence of an actual facility layout or achieved autonomy.
Fig. 3. Conceptual illustration generated with ImageGen. A concept connecting instruments and experimental planning, not evidence of an actual facility layout or achieved autonomy.Not an actual product, facility or measurement. Enlarged models, lines, arrows and colours are explanatory.

13. References

  1. Lila Sciences Official website (home page): the company's description, forms of offering and news list. Checked 22 October 2026. https://www.lila.ai/
  2. Lila Sciences Tech page: the scientific reasoning model, reinforcement learning and the AI Science Factory. https://www.lila.ai/tech
  3. Lila Sciences About page: founding year, philosophy and operating principles. https://www.lila.ai/about
  4. Lila Sciences Team page: names and titles of the leadership. https://www.lila.ai/team
  5. Lila Sciences Contact page: locations (San Francisco, Cambridge, London). https://www.lila.ai/contact
  6. Lila Sciences Catalyst page: access to Lila Iris and the AI Science Factory. https://www.lila.ai/lila-catalyst
  7. Lila Sciences Creation page: discovery campaigns carried out for clients. https://www.lila.ai/lila-creation
  8. Lila Sciences "Join Our Mission": company introduction, US$200 million seed round and leadership (dated 3 October 2025 on the site). https://www.lila.ai/news/join-our-mission
  9. Lila Sciences "Welcoming New Partners in Our Mission to Build Scientific Superintelligence" (15 September 2025): the US$235 million Series A. https://www.lila.ai/news/series-a-235-million
  10. Lila Sciences "Announcing Lila's $350M Series A" (dated 10 October 2025 on the site): Series A close and US$550 million total raised. https://www.lila.ai/news/announcing-the-close-of-our-series-a
  11. Lila Sciences "Powering American Science: LILA to join DOE's Genesis Mission" (22 July 2026): three Phase I awards. https://www.lila.ai/news/powering-american-science-lila-to-join-does-genesis-mission
  12. Lila Sciences "How an AI-run lab cracked open green hydrogen's catalyst problem" (25 September 2026): the company's account of the OER catalyst search. https://www.lila.ai/news/how-an-ai-run-lab-cracked-open-green-hydrogens-catalyst-problem
  13. Paper (arXiv) "AI-guided high-throughput discovery of iridium- and ruthenium-free palladium-oxide catalysts for durable acidic oxygen evolution" (submitted 24 September 2026, arXiv:2609.30133; a preprint, not yet peer reviewed). https://arxiv.org/abs/2609.30133

14. Claim-to-source audit

Claim in the textTypeSource
The name Lila Sciences, Inc.; privately held; locations (San Francisco, Cambridge, London)SourcedReference 1, 5 https://www.lila.ai/ https://www.lila.ai/contact
Founded in 2023, prepared inside Flagship Pioneering, went public in March 2025SourcedReference 3, 10 The company's description https://www.lila.ai/about https://www.lila.ai/news/announcing-the-close-of-our-series-a
The leaders' names and titles (von Maltzahn, Beam, Gómez-Bombarelli and others)SourcedReference 4, 8 https://www.lila.ai/team https://www.lila.ai/news/join-our-mission
The US$200 million seed and the investors' namesSourcedReference 8 https://www.lila.ai/news/join-our-mission
The US$235 million Series A (15 September 2025, co-led by Braidwell and Collective Global)SourcedReference 9 https://www.lila.ai/news/series-a-235-million
The US$350 million Series A close, US$550 million total, and additional investorsSourcedReference 10 https://www.lila.ai/news/announcing-the-close-of-our-series-a
The Series A close date differs within the website: 10 and 15 October 2025SourcedReference 10, 9 https://www.lila.ai/news/announcing-the-close-of-our-series-a https://www.lila.ai/news/series-a-235-million
The seed post's date on the site (3 October 2025) disagrees with its text (public in March 2025)SourcedReference 8, 10 https://www.lila.ai/news/join-our-mission https://www.lila.ai/news/announcing-the-close-of-our-series-a
Three Genesis Mission Phase I awards, the partner institutions and the aim of each projectSourcedReference 11 Company announcement; the aims are the company's plans https://www.lila.ai/news/powering-american-science-lila-to-join-does-genesis-mission
Phase II is an opportunity to apply, and no award is assuredNot yet confirmedReference 11 The company's statement https://www.lila.ai/news/powering-american-science-lila-to-join-does-genesis-mission
The AISF as a verifier that supplies the reinforcement-learning rewardSourcedReference 2 https://www.lila.ai/tech
The philosophy of building a single general-purpose platformSourcedReference 3 https://www.lila.ai/about
The forms of offering: Lila Iris, AISF, Catalyst and CreationSourcedReference 6, 7, 1 https://www.lila.ai/lila-catalyst https://www.lila.ai/lila-creation https://www.lila.ai/
OER catalyst search: 2,942 catalysts, 53 systems, 26 elements, 100 samples a day, about 240 a week, 17x, over 90% less human timeSourcedReference 12, 13 Company's claim https://www.lila.ai/news/how-an-ai-run-lab-cracked-open-green-hydrogens-catalyst-problem https://arxiv.org/abs/2609.30133
Six palladium-based families, the lead candidate over 1,000 hours in acid, "matches ruthenium"SourcedReference 12 Company's claim https://www.lila.ai/news/how-an-ai-run-lab-cracked-open-green-hydrogens-catalyst-problem
PdOx about 200 h, NiTaPdOx about 470 h, InMnPdOx over 1,000 h (1 M H2SO4, 10 mA/cm2, 0.5 V overpotential)SourcedReference 13 Preprint (not peer reviewed) https://arxiv.org/abs/2609.30133
Automation above 90%, human supervision, people carried samples, and the company's statement that it is not a commercial productSourcedReference 12, 13 https://www.lila.ai/news/how-an-ai-run-lab-cracked-open-green-hydrogens-catalyst-problem https://arxiv.org/abs/2609.30133
Phrases such as "scientific superintelligence" and "consistently outperforms other models"SourcedReference 1, 2 Company claim and philosophy; no data or conditions given https://www.lila.ai/ https://www.lila.ai/tech
Headcount, instrument counts, revenue, valuation and AISF throughputNot yet confirmedReference 1 Not stated in official material. This article does not estimate them https://www.lila.ai/
Real-scale results for the OER catalyst, the time to a product, and independent replicationNot yet confirmedReference 12 Not stated. This article does not assert that none exists https://www.lila.ai/news/how-an-ai-run-lab-cracked-open-green-hydrogens-catalyst-problem
Main type autonomous experiments & robotics, secondary type foundation models & computeOur calculationOur own classification, not the company's self-description (this article)
The experiment-loop illustration and the three-part reading illustrationOur calculationOur own framing (illustrations in this article)
Whether a thin-film result carries over to a real device needs separate checkingOur calculationOur own note, based on general knowledge (this article)
The reading that catalysts were chosen first to build a track recordInferenceOur interpretation of the hydrogen-catalyst post and the Genesis Mission content (this article)
The reading that productisation and volume manufacturing appear to be left to clients and partnersInferenceOur interpretation of the Creation description (this article)
The reading that materials results should be judged apart from life-science resultsInferenceOur interpretation of how the website presents its figures (this article)
The risk that business breadth obscures how resources are allocated to materialsInferenceOur interpretation of official material containing no materials-group resources (this article)

Last updated: 22 October 2026 / Troy Technical
The content of this article is based on Lila Sciences' website and official announcements and on an arXiv preprint. No market-research estimates or press-only figures are used. Phrases such as "scientific superintelligence" are company philosophy, and result figures (17x, over 1,000 hours and so on) are the company's own claims. The preprint has not been peer reviewed and has not been confirmed by independent verification. Passages marked "Inference" are this article's reading of primary sources and are not statements by the company.

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