We model patient biology across multiple molecular layers to identify which existing compounds work for which biological subtypes—and design the experiments that prove it. Our initial focus is autism spectrum disorder.
Conditions like autism affect every patient differently, which is why the same therapy succeeds in one person and fails in another. We measure multiple layers of biology—gut microbiome, metabolism, proteins, and genetics—to build a complete molecular picture of each patient, then use AI to resolve heterogeneous populations into well-defined biological subtypes.
That resolution powers two things partners can act on: finding which existing drugs are likely to work for which subtype, and designing the trials and biomarker panels that prove it.
Think of a digital twin like a weather forecast, but for human biology. Just as meteorologists combine temperature, pressure, humidity, and wind data to predict tomorrow's weather, we combine data from the gut microbiome, metabolism, proteins, and genes to model how a patient's biology works.
Most approaches take a single snapshot of one biological system. We track multiple systems over time. This matters because biology isn't static—it's constantly changing. By learning these patterns, our AI can predict how a patient will respond to a given intervention before it's administered, which is precisely what's needed to prioritize compounds and enrich trial cohorts.
This is powered by a type of AI specifically designed to learn how complex systems change over time. Where standard AI sees a still photo, our platform sees the whole movie—capturing how biological systems interact and evolve together.
Most biomarker approaches look at one layer—genomics, or the microbiome, or a single assay. Each gives a partial view. We integrate them, and the result isn't just additive—it's exponentially more accurate at separating responders from non-responders.
We are the core computational modeling team for Wellcome LEAP's FORM program (Foundations of a Resilient Microbiome)—a $50 million global initiative investigating the link between the gut microbiome and neurodevelopment in early life.
As part of this consortium, we are analyzing multi-omics data from 17,000 individuals across multiple longitudinal birth cohorts, working alongside world-leading research institutions to determine whether early-life microbiome dysfunction is causally linked to neurodevelopmental outcomes including autism.




















We work with pharmaceutical teams and research consortia to reposition assets, stratify patients, and design trials that succeed. Get in touch to discuss your program.
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