Linking Internal R&D Artifacts
Diving deeper into
Levi Lian, CEO of Raycaster, on why vertical AI is workflows first & chat last
The real lever is linking internal R&D artifacts
Analyzed 3 sources
Reviewing context
The defensible product is not search across biotech documents, it is a map of how one decision in the lab changes everything downstream. When assay reports, failed experiments, specs, batch records, stability work, and filing sections are linked, the software can show exactly what breaks, what must be rewritten, and who needs to review it. That turns scattered files into an operating system for development, not just an answer engine.
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This matters because the expensive work in drug development is handoffs and rework. A protocol change can ripple into site packets, SAPs, CRFs, tech transfer packs, batch records, PPQ, and Module 3. Linking artifacts lets the system catch those ripples before they become delays, amendments, or second review cycles.
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The comparison is Benchling. Benchling became core infrastructure by turning experiment design, documentation, and sample tracking into a shared system of record for scientists. Raycaster is aiming one layer later in the workflow, tying scientific artifacts to quality, manufacturing, and regulatory execution where mistakes are even more costly.
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This also explains why paper and patent mining is weak as a moat. Public research can be searched by any model vendor. Internal negative results, method quirks, reviewer behavior, and approval history are unique to each company, and those traces become the high value training and evaluation data that improve future workflows.
The next step is software that pushes design-for-manufacturing and regulatory feedback upstream into R&D. As more internal artifacts are connected, life sciences AI shifts from drafting documents after decisions are made to shaping experiments and development plans before costly errors get locked in.