Magnus is an AI-powered, fully automated lab platform that designs, generates, and validates programmable ligands—turning PFAS, toxins, and high-value targets into deployable detection and capture assets in weeks.
Built for high-consequence environments: defense · infrastructure · food · industrial biotech
Biotech has plenty of ideas. What doesn't scale is execution: running
enough high-quality experiments—fast, repeatedly, and reproducibly—to
turn hypotheses into deployable outputs. Most discovery is still manual,
bespoke, and slow.
Magnus exists to remove that bottleneck by making discovery a
machine:
standardized, automated, and compounding.
Magnus combines four integrated layers into a single system that improves with every experiment it runs.
Chooses the highest-value experiments to run next. Prior results, published literature, and computational models feed an engine that prioritizes what matters most—eliminating wasted cycles.
Automated lanes run biology with consistent controls. Robotic precision removes human variability and enables parallel throughput around the clock.
Results feed back immediately to improve the next cycle. Sequencing data, enrichment patterns, and failure modes compound into a growing intelligence layer.
Outputs are delivered as evidence-backed assets—not research reports. Validated performance, documented behavior, and integration-ready specifications.
Magnus starts from published science and computational simulations, then closes the loop—our decision engine prioritizes experiments, automation runs them, and each iteration sharpens the next until the data says ship.
Literature, simulations, and prior data shape the experimental plan
Our decision engine ranks and sequences the highest-value experiments
Automated lanes run selections with built-in controls
Results feed back into the engine—each cycle sharpens the next
Validated assets ship only when the experiments are conclusive
Programmable binders and assay-ready components are the "low hanging fruit" for automated discovery: objective metrics, rapid iteration cycles, and immediate demand.
Validated binder families with quantified affinity/specificity, cross-reactivity maps across PFAS chemistries, and integration-ready paths for sensing and capture.
Assay design + validation outputs that plug into real automated detection systems—built for reproducibility, traceability, and deployment.
Because buyers don't buy one analyte—they buy coverage. Magnus produces panel roadmaps, expansion plans, and evidence packages designed to evolve as requirements change.
Same engine → more asset classes.
Quantified affinity/specificity, documented failure modes, and matrix-tested behavior. Outputs are measured, not estimated.
Because in the real world, specificity is the product. Every deliverable includes behavior across related and interfering compounds.
Sequences/specs plus QC and reproducibility documentation. Assets ship ready for integration, not further development.
Traceability and reporting designed for high-consequence environments from day one. Built for defense and regulatory stakeholders.
PFOA/PFOS plus expanded PFAS coverage. Built to deliver clear cross-reactivity maps and matrix behavior—so your team can act, not debate.
Rapid panel generation with evaluation-grade evidence packages. Designed to update as threat lists change.
Detection assets for emerging contaminants across supply chain and environmental matrices. Built to meet the monitoring demands that antibodies can't scale to.
Magnus compounds advantage through every campaign it runs—making future discovery faster, more reliable, and harder to replicate.
Discovery scales when execution stops being the bottleneck. Automated lanes run continuously with consistent controls, reducing variability and compressing timelines.
Outputs ship only when the data is conclusive. Every deliverable includes traceability, reproducibility, and deployment-ready documentation.
Each campaign improves the system—experiment design, selection strategy, and performance prediction—making future discovery faster and more reliable.
We start with PFAS and high-urgency detection workflows because they commercialize quickly. The system is designed to expand to additional asset classes over time.
Run a pilot campaign and receive validated outputs designed for real integration: documented performance, cross-reactivity behavior, and a clear path to deployment and expansion.