A new architecture for human care.
We’re building the future of nanocare: precise, personalized interventions and a digitally connected hospital network, designed to make advanced care more accessible.
Ensure life for all.
Growing old with someone you love. Watching a child become an adult. Living in a body that lets you live fully.
Illness can put those ordinary dreams out of reach. We’re building Utopix NanoCare to give more people that chance.
Our focus is precise nanoscale intervention. Our ambition is better care with less disruption, less cost, and less distance between people and the expertise they need.
Greater medical capability.
A smaller physical footprint.
Our flagship product, NanoRepair Lab, is the starting point for a connected system spanning research, personalized intervention planning, and integrated nanocare.
A digital research lab for nanoscale intervention development, with simulation to model transport, compare scenarios, and inspect assumptions before physical testing.
Explore NanoRepair LabConnect patient biology, intervention design, and delivery constraints in one planning workflow for research, engineering, and care teams.
Explore collaborationBring planning, partner-developed equipment, treatment, and follow-up together through a specialized hospital and, ultimately, a global care network.
Register your interestNanoRepair Lab is in development. Future clinical offerings will require scientific validation and appropriate regulatory authorization.
Before an intervention, a better understanding.
NanoRepair Lab is Utopix NanoCare’s flagship digital lab. Its working prototype models nanoscale transport, compares scenarios, and makes assumptions inspectable.
Workbench image from the original NanoRepair Lab prototype. Outputs illustrate an idealized transport model; they do not establish biological response or patient outcomes.
Next: independent scientific validation and a paid research deployment.
We are developing NanoRepair Lab toward personalized, targeted intervention planning—helping research, engineering, and care teams evaluate possibilities before implementation, with lower cost and risk as goals. Patient-specific clinical planning is a future capability.
We intend to build vertically through the complete care pathway—from simulation and intervention design to planning, delivery, and follow-up, integrating partner-developed equipment.
Develop our flagship digital lab into a commercial product for nanoscale research and simulation, with independent validation of its predictive usefulness.
Predictive usefulness against independent measurements—and a valuable application that customers will pay for.
The first hospital is where the science becomes a complete operating business: real outcomes, real delivery requirements, and measured economics.
The opportunity is to bring emerging capabilities together into a complete, measured system of nanocare. These milestones are enabling signals, rather than Utopix clinical results.
FDA approval of Onpattro establishes a clinical precedent for RNA delivery through lipid nanoparticles.
FDA · APPROVED MEDICINENVIDIA and GE HealthCare introduce physics-based simulation of anatomy, sensors, instruments, and environments.
NVIDIA + GE HEALTHCARE · DEVELOPMENT PLATFORMPenn and Michigan demonstrate light-powered, programmable laboratory robots around 200 × 300 × 50 micrometers, combining sensing, computation, and motion.
PENN + MICHIGAN · MICROSCALE LABORATORY ROBOTSETH researchers demonstrate microrobot navigation in large animals and clot dissolution in a vessel model.
ETH ZURICH · PRECLINICAL RESEARCHExin’s founder reports an agent selecting a therapy and directing a live-mouse brain injection, with veterinary approval of irreversible steps. Therapeutic effectiveness was not yet reported.
EXIN THERAPEUTICS · FOUNDER-REPORTED EXPERIMENTMicrosoft reports 83% accuracy on a complex diagnostic benchmark, compared with 36% for physicians using reference resources.
MICROSOFT · DIAGNOSTIC BENCHMARKIntuitive Surgical connects simulation, patient-specific planning, and robotic systems. We study that integrated workflow as we develop Utopix’s specialized path toward nanocare.
Explore the benchmark ↗The goal is to reduce what successful treatment demands—from patients, specialists, and the systems paying for care. We will measure the complete pathway.
100×
Up to a hundredfold reduction for selected care pathways, including the resources required to deliver treatment.
80×
At least an eightyfold improvement, while preserving or improving clinical outcomes.
These are ambitions requiring scientific and clinical validation, not results demonstrated by the prototype.
Patient outcomes
Recovery time
Specialist hours
Total episode cost
Equipment footprint
Turning technical capability into practical improvements in people’s lives.
I bring 20+ years across Raytheon, NAVSEA, Netflix, and Walmart eCommerce, including more than a decade focused on modeling and simulation at Raytheon and NAVSEA.
I am also a published co-author of nanocomposites research: Multiscale fiber-reinforced nanocomposites: Synthesis, processing and properties, published in Composites Science and Technology (2006).
As a hands-on generalist, I use software, analytics, scripting, and AI to make complex systems more reliable and people’s work easier. I’ve built the working NanoRepair Lab prototype, AI-assisted operating tools, and developed six venture concepts through research, product strategy, and business planning.
Scientific and clinical collaborators are the next team-building priority.
Meet Sylvester on LinkedInSmall-scale materials.
System-scale effects.
Co-authored by Sylvester Richmond, this work explores how nanoscale additives influence the properties of a larger engineered material.
Composites Science and Technology
Volume 66, Issue 13 · October 2006 · Pages 2135–2142
The study examines how nanoscale silicate particles affect the processing and mechanical properties of fiber-reinforced epoxy composites, including their bending stiffness and strength.
DOI: 10.1016/j.compscitech.2005.12.015
Compact equipment and digitally coordinated expertise could bring advanced care closer to underserved communities and remote locations on Earth.
Eventually, the same design direction could matter beyond Earth, where equipment, supplies, power, and access to specialists are constrained.
Explore NASA’s medical capability challenges ↗A better future for care starts with people willing to build it.
Whether you want to invest, collaborate, help develop future NanoCare services, or learn more, we’d love to hear from you.