Pharmacogenomic ranking
ScreenGenotype-conditional selectivity at campaign scale — which compounds differentiate for this genetics, not a generic scoreboard across everyone.
Genotype-aware ranking, 3D tissue physics, and a governed evidence trail — so your team can see which compounds fit the biology, where delivery breaks, and what to test next.
Drug discovery does not lack data. It lacks evidence a team can act on — before the wet lab spends a year proving the wrong shortlist.
LURA is built for accelerated, parallel biology: the compute foundation to move from broad screening to deeper tissue simulation and governed evidence without waiting through another wet-lab cycle.
The bottleneck is not intelligence. It is time, false confidence, and the distance between a promising assay and a working therapy. LURA gives oncology teams a faster filter: genotype-aware ranking, mechanism, 3D tissue physics, and a governed evidence trail. The result is not another score — it is a shortlist your team can defend and test.
— Elyris Labs · LURA
Genotype-conditional selectivity at campaign scale — which compounds differentiate for this genetics, not a generic scoreboard across everyone.
Therapeutic-target and pathway context on the shortlist, then 3D tissue physics: penetration, hypoxia, stromal shielding — kill pressure, not vibes.
Structural analogs and indication hypotheses for portfolio rescue — then a governed Pilot Package with provenance, confidence, and degradation flags.
Pharmacogenomic campaign: 2.6M drug–cell pairs in ~1.5s — rank what is selective for this genetics first.
~40 high-conviction candidates — therapeutic leads and repurposing options that cleared genotype ranking.
Mechanism + targeting context, then 3D penetration and hypoxia — fail the bad physics before wet-lab spend.
Deliver the cryptographically anchored Preclinical Proof Pack — audit-ready for reviewers and partners.
The artifact BD, translational, and portfolio teams share — from screen noise to a market-facing evidence deck.
One motion.
Four phases.
Flat assays hide the failure modes that kill programs later: hypoxic cores, stromal shells, and penetration collapse. LURA models genotype-conditional selectivity and 3D tissue physics, then packages the answer as a governed Pilot Package your reviewers can act on — so the wet lab validates the right shortlist, not the lucky one.
Every number below is bound to an artifact and a split. Research-grade results are labeled exactly that — and are never promoted into a governed product claim until bound assets back them.
Pre-registered 20,000-sim / 100-trial SNPE design with a 72-hour multi-dose + oxygen series. Joint parameter coverage passed.
Engine evidence is fail-closed and bound to assets. No governed claim ships without bound evidence.
Mechanism pathway context is live. It is cell-aware and drug-invariant — we do not use Tahoe to rank drugs.
Structural generalization on the Oracle panel — held out by scaffold, not by random split.
A research accelerator for summary field statistics under shadow deferral — p95 relative L2 well under 1%. The full-field PDE remains the authority.
Identity before science · partial truth over fake green · fail-closed promotion.
Most portfolios stall between “interesting in vitro” and “ready for real capital.” LURA is the filter in that gap — rank by genetics, stress with mechanism and physics, export evidence BD and translational teams can carry forward.
Shelved assets, broad libraries, and half-tested indications with no genotype-aware ranking.
Campaign-scale selectivity: what differentiates for this context — including repurposing candidates.
Shortlist only: pathway/target context and 3D failure modes that flat plates never show.
Pilot Package ready for internal review, partner decks, and the next go/no-go — not a heatmap dump.
Library → shortlist → evidence → decision. Less theater. More motion.
The beachhead is cancer drug development — where 3D resistance and genotype mismatch burn the most capital. The architecture is tissue-general: genotype anchor → mechanism map → spatial physics → governed export. Active research tracks extend the same slipstream.
Virtual tumors, TME physics, PGx ranking, repurposing atlases — production path for pilots and CROs.
Pressurized, hypoxic lesions and barrier-aware penetration — already in the spatial research lane.
Multi-pathway combinatorial screens before multi-year aging studies burn calendar and capital.
Complex tissue contexts where targeting without physics still ships the wrong lead.
Builders across engineering, translational science, and clinical systems — gathered for one purpose: to close the distance between a promising assay and a therapy a patient can actually receive.
We believe the industry does not need another scoreboard. It needs a decision system — genotype-aware ranking, 3D tissue physics, and a governed evidence trail — so capital and wet-lab cycles go to the shortlist that survives, not the one that merely looks interesting in a flat plate. Oncology is the beachhead. The architecture is built for the next tissue.
B.S. Computer Engineering · AI/ML
M.Eng. Translational Medicine · UC Berkeley/UCSF
M.S. Engineering Management · B.S. Electrical Eng.
B.S. Computer Engineering · cloud & multi-tenant infra
WHO consultant · clinical engineering & regulatory
The next decade of medicine will be computed before it is tested. The wet lab confirms the answer. It no longer searches for one.
Bring a compound set, a biological context, or a stalled program. We’ll show how LURA turns it into a ranked, explainable next step before more wet-lab spend.