Biomedical data is growing faster than teams can read it

Category: Drug Discovery

Papers, patents, and public datasets accumulate faster than any team can review, so relevant evidence is missed and work is unknowingly duplicated.

Scientific literature, patents, conference abstracts, and public omics datasets accumulate far faster than any discovery team can manually review. Relevant findings get missed, work is unknowingly duplicated, and connections across disciplines go unnoticed. AI approaches — literature mining, natural language processing, and knowledge graphs — help teams search, summarize, and connect this evidence so scientists can spend their time on interpretation rather than retrieval.

How AI helps make sense of biomedical data at scale

Literature- and data-mining tools apply natural language processing across large collections of documents — papers, patents, abstracts, and structured databases — to extract the entities and relationships buried in them: genes, diseases, compounds, pathways, and the claims connecting them. Many organize what they find into a knowledge graph, so a scientist can ask how a gene relates to a disease across the whole corpus rather than reading one paper at a time. Others generate summaries or answer questions with links back to the source passages. The point is to accelerate retrieval and synthesis, not to replace judgment. These systems surface candidate evidence and connections a person might never have found; the scientist still reads the primary sources, checks the context, and decides what the evidence means. Every claim should trace back to a document a human can verify.

What to evaluate before buying literature and data-mining AI

Coverage and traceability are the first things to test. A tool can only surface evidence from sources it actually indexes, so ask what corpora it covers — which journals, patents, preprints, and databases — and how current they are. Just as important, every extracted claim or summary should link to its source passage; an assertion you cannot trace back to a document is a liability, especially since language models can produce fluent but unsupported statements. Then probe extraction quality in your domain, since entity recognition and relationship extraction vary in accuracy across fields — check how the tool handles your terminology, synonyms, and abbreviations. Consider how it manages access to subscription content you license, and whether it fits the way your teams already search and record findings.

How teams typically get started

A low-risk entry point is testing the tool on a question your team has already answered thoroughly — a completed literature review or a target you have worked up in depth. Comparing what the tool surfaces against what your experts already found shows whether it adds genuinely new connections, misses known evidence, or introduces unsupported claims, all before it informs a live decision.

AI Use Cases That Address This Problem

  • Target Identification & Validation

Frequently asked questions

How does AI help with biomedical literature and data overload?

It uses natural language processing to read across large document and data collections, extract entities and relationships, and organize them so scientists can search, summarize, and connect evidence far faster than manual review allows. The tools handle retrieval and synthesis at scale; interpretation and verification stay with the researcher.

Can I trust AI-generated summaries of scientific evidence?

Only when they are traceable. Language models can produce fluent statements that are not supported by any source, so a summary is trustworthy to the extent that every claim links back to a document you can check. Treat summaries as a fast way to find and organize evidence, then confirm the important points against the primary literature.

Does the tool cover the sources we actually rely on?

That varies by platform and is worth verifying directly, because a tool can only surface what it indexes. Ask which journals, patents, preprints, and databases are covered, how frequently they are updated, and how the tool handles subscription content your organization licenses.

What should we ask a literature-mining vendor?

Ask about corpus coverage and freshness, how accurately the system extracts entities and relationships in your field, whether every output links to a verifiable source, how it handles your licensed content and data security, and how it fits your existing search workflow. A test on a question you have already answered is a good validation.

AI Vendors for This Problem

Evidence & Outcomes

Roche and Genentech collaboration with $150M upfront payment

Recursion entered a multi-year collaboration with Roche and Genentech to discover novel targets in neuroscience and an oncology indication, receiving a $150 million upfront payment with potential for substantial milestone payments.

Vendor: Recursion Pharmaceuticals · press release (Recursion (Investor Relations)) · 2021-12-07 — Partner: Roche / Genentech

Sanofi collaboration worth up to $1.2 billion in milestones

Sanofi entered a research collaboration using Insilico's Pharma.AI platform to advance drug candidates across multiple targets, with Insilico eligible for up to $1.2 billion in potential milestone payments plus royalties.

Vendor: Insilico Medicine · press release (Insilico Medicine (GlobeNewswire)) · 2022-11-08 — Partner: Sanofi

U.S. FDA Orphan Drug Designation for its generative-AI-discovered IPF drug (INS018_055)

The U.S. FDA granted Orphan Drug Designation to INS018_055 (rentosertib), Insilico's candidate for idiopathic pulmonary fibrosis whose biological target was AI-identified and whose molecule was AI-generated, recognizing its development for a rare disease.

Vendor: Insilico Medicine · press release (Insilico Medicine (GlobeNewswire)) · 2023-02-08

Sanofi collaboration expanded to apply AI for drug positioning in immunology

Owkin expanded its collaboration with Sanofi into immunology, using its AI target-discovery engine to identify candidate gene targets and associated patient subpopulations to support tailored treatment design.

Vendor: Owkin · press release (Owkin) · 2024-03-21 — Partner: Sanofi

AstraZeneca collaboration delivers novel targets in CKD and IPF

Under its long-running collaboration with AstraZeneca, BenevolentAI's platform contributed AI-generated novel drug targets that AstraZeneca selected to advance in chronic kidney disease and idiopathic pulmonary fibrosis.

Vendor: BenevolentAI · press release (BenevolentAI (Business Wire)) · 2024-06-24 — Partner: AstraZeneca

Merck KGaA collaboration for Parkinson's disease drug discovery

Valo Health announced a collaboration with Merck KGaA, Darmstadt, Germany, to discover and develop novel treatments for Parkinson's disease and related disorders, applying Valo's human-data-driven Opal computational platform to target discovery.

Vendor: Valo Health · press release (Valo Health) · 2024-10-09 — Partner: Merck KGaA, Darmstadt, Germany

First patient dosed in Phase 2 trial of AI-identified HLX-1502 for neurofibromatosis type 1

Healx dosed the first patient in INSPIRE-NF1, a Phase 2 trial evaluating HLX-1502 — an oral investigational therapy advanced through its AI-driven rare-disease drug discovery and repurposing platform — for the treatment of neurofibromatosis type 1 (NF1).

Vendor: Healx · press release (Healx) · 2025-02-24

Generative-AI–discovered IPF drug (rentosertib) reports topline Phase IIa results

Insilico advanced rentosertib (INS018_055), a drug with both an AI-discovered target and an AI-generated molecule, through a Phase IIa trial in idiopathic pulmonary fibrosis. Results were published in Nature Medicine — among the first peer-reviewed clinical readouts for a fully generative-AI–originated drug.

Vendor: Insilico Medicine · press release (Insilico Medicine (PR Newswire)) · 2025-06-03