Microphysiological Systems Platform
Human Biology Data for Better Drug Decisions
NANOSTACKS™ is a modular human microphysiological systems platform for predictive drug safety, efficacy, and multi-organ biology.
- Predictive safety and efficacy data earlier in development
- Model systemic biology across organs in a single platform
- Decision-ready readouts designed for go/no-go confidence

Human-Relevant Evidence, Earlier in Development
Quantitative readouts designed to reveal mechanisms, transport, toxicity, and organ-to-organ effects before costly decisions.
Peer-Reviewed Science
Built on Peer-Reviewed Evidence
Featured Publication
A New Microphysiological Platform to Study the Permeation of Neuroactive Agents Across Intestinal and Brain Barriers
Biofabrication, 2026 · Peer-Reviewed
Pavan B., Botti G., Dalpiaz A., Sbordoni R., Talari A. & Llabjani V.
Validates NANOSTACKS™ as a robust in vitro tool for studying neuroactive drug transport across intestinal, blood-brain, and blood-CSF barriers.
The Platform
From Single-Organ Models to Connected Human Biology
Modular organ models, physiological barriers, mechanistic readouts, and multi-organ interactions in one scalable platform.
- Modular multi-organ systems and organ interactions
- Integrated barrier modeling across physiological interfaces
- Mechanistic readouts for decision-ready data

Applications
Built for your research
High-impact applications across safety, efficacy, and complex biology.
Workflow
From design to decision
Choose your model, run the study with us or in your lab, and turn human-relevant biology into decision-ready data.


Complementary Capability
AI-Assisted Safety & Design
Explainable AI identifies and interprets risk — then NANOSTACKS™ human data experimentally validates it.
- 01
Risk Detection
Identify structural and biological liabilities across DILI, neurotoxicity, and ADMET.
- 02
Mechanistic Understanding
Explain risk drivers with interpretable models — not black-box predictions.
- 03
Human Validation
Experimentally evaluate predictions in multi-organ human systems.

