CellCircuit Platform

An AI-native discovery platform

CellCircuit connects engineered living 3D human biology, multimodal evidence, and computational intelligence in a closed learning loop to discover better therapeutics, faster.

01Living 3D Human Biology

Engineering living human biology

Multicellular 3D human systems, including organoids, spheroids, tumoroids, and assembloids, engineered with physiologically relevant biochemical, biomechanical, and cellular microenvironments across CNS, neuro-oncology, and PNS indications.

02Scalable Human Biology

From one model to thousands

Automated model generation enables reproducible human biology at scale, creating the experimental foundation for high-throughput learning and AI-native therapeutic discovery.

03Pheno-Multiomics

Connecting phenotype to molecular biology

Longitudinal and spatial phenotypes are connected with complementary molecular evidence to build a multimodal view of cell state, therapeutic response, and disease biology over time.

04AI-Native Discovery Intelligence

Turning biology into discovery intelligence

Compounding pheno-multiomic evidence strengthens an AI-native intelligence layer that reveals disease mechanisms, prioritizes therapeutic opportunities, and informs go/no-go decisions — guiding what to test, advance, or stop next.

05Closed-Loop Discovery

Intelligence guides the next experiment

Discovery intelligence feeds back into living human biology, guiding the next hypotheses, perturbations, and experiments. Each cycle generates new biological evidence, strengthening the intelligence used to make the next decision.

CellCircuit · MODEL VIEW · cross-section
Automation Architecture
01
Scalable 3D Model ManufacturingProprietary automation enables high-throughput manufacturing of engineered living 3D human models with the consistency and scale required for iterative therapeutic discovery.
02
High-throughput 3D ProcessingProprietary automation enables scalable processing and interrogation of intact 3D biological models across complex experimental workflows while preserving biological architecture and context.
03
Reproducible by DesignStandardized, traceable workflows reduce experimental variability and generate comparable biological evidence across experiments, programs, and time.