
Healthcare
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Biotechnology
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YC W26
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Valuation:
Undisclosed

Last Updated:
March 24, 2026

Builds the Axis AI platform, a transformer-based generative and predictive model that designs regulatory DNA elements (enhancers, promoters) to enable safer, more precise cell and gene therapies with programmable control over gene expression.
Origin has publicly released the Axis model with free API access for researchers, announced plans to expand into multi-modal biological modeling (RNA, protein, cellular representations), and published benchmarks showing Axis outperforms Google DeepMind's AlphaGenome by 6.7% in regulatory element activity prediction. They've detailed a vision for a comprehensive library of validated, cell-type-specific regulatory elements and positioned Axis as a foundational platform for programmable biology beyond gene therapy.
GitHub and preprint activity suggest rapid iteration on transformer architectures for DNA sequence generation and function prediction. Hiring patterns indicate investment in wet-lab validation capabilities to build proprietary synthetic regulatory element datasets, a classic data-flywheel strategy. Conference appearances and advisor networks (MIT Broad Institute, UCSF gene therapy labs) hint at undisclosed pharma collaborations. The free API strategy mirrors early-stage platform plays designed to capture market share and generate training data before monetizing through enterprise licensing or co-development deals.
AI-driven design and prediction of regulatory DNA elements (enhancers and promoters) for programmable gene expression in therapeutic vectors.
Origin's AI designs custom DNA "switches" that tell a therapy gene exactly when, where, and how loudly to turn on—like writing a personalized instruction manual for every cell type in the body.
It's like having an AI architect who can design a house that only unlocks its doors for the right family member in the right room at the right time—except the house is a gene therapy and the rooms are different cell types.
Proprietary synthetic regulatory element data flywheel—using AI-generated candidates validated through high-throughput wet-lab experiments to continuously retrain and improve the Axis model.
Origin runs a self-reinforcing loop where its AI designs DNA sequences, lab experiments test them, and the results make the AI smarter—like a student who writes their own exam questions and learns from every answer.
It's like a chef who invents new recipes, taste-tests them all, and uses the results to invent even better recipes—except no other chef has access to the tasting notes.
AI-powered therapeutic safety optimization—predicting and minimizing off-target gene expression and adverse effects in cell and gene therapy candidates before clinical development.
Origin's AI predicts whether a gene therapy might accidentally turn on in the wrong cells and redesigns it to avoid that—like a spell-checker for DNA that catches dangerous typos before they reach a patient.
It's like having a GPS that not only finds the fastest route to your destination but also automatically avoids every neighborhood where your car might break down—before you even start driving.
Origin combines frontier generative AI expertise from two UIUC Computer Science graduates with world-class genomics advisors including Dr. Manolis Kellis (MIT Computational Biology Group lead), Dr. Nicole Paulk (UCSF gene therapy expert, advisor to Dyno Therapeutics and Astellas), and Dr. Rashid Bashir (Dean of UIUC Grainger College of Engineering, Chan Zuckerberg Biohub Chicago). The CEO won First Prize in the 2022 OpenCV AI Research Competition, and the CTO previously worked at Wadhwani AI and Automorphic (YC S23) and published disease modeling research in Nature Scientific Reports while in high school.