HUMAN BIOLOGY. CONNECTED INTELLIGENCE.

Platforms

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From organ-on-chip models and controlled experiments to AI orchestration: a shared infrastructure for human validation and connected discovery.

ORGAN-ON-CHIP

Start with the biology.

Choose the organ-on-chip configuration that fits your study.

S-Series

01

E-Series

02

H-Series

03

S-Series

A starting point for your organ-on-chip study.

Start with your tissue model and study objectives. Discuss the culture interface and readouts your study needs to determine whether S-Series is the right fit.

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001
in your workflow
Connect the product to your experiment.
Marcus Vance
Chief Technology Officer at NexusFlow
Elena Rostova
VP of Strategy at Vertex Global
Model requirements
Define the tissue arrangement and culture conditions for your study.
Configuration consultation
Discuss chip specifications, connections and supported measurements.
002
Applications
Inhalation & Lung
Marcus Vance
Chief Technology Officer at NexusFlow
Elena Rostova
VP of Strategy at Vertex Global
Follow the full study process: define the question, select the model, plan exposure and measurement, then interpret the evidence.

E-Series

Electrode-integrated organ-on-chip.

E-Series integrates electrodes into the chip, bringing an electrical measurement interface to the biological model. Discuss the required readouts and compatible measurement system with our team when planning your study.

Request Info

001
in your workflow
Connect the product to your experiment.
Marcus Vance
Chief Technology Officer at NexusFlow
Elena Rostova
VP of Strategy at Vertex Global
Integrated electrodes
An electrode-integrated chip architecture makes the measurement interface part of the model setup.
Measurement-led study design
Define the electrical readouts needed to study the model response, then confirm the measurement method and system compatibility.
002
Applications
Inhalation & Lung
Marcus Vance
Chief Technology Officer at NexusFlow
Elena Rostova
VP of Strategy at Vertex Global
Follow the full study process: define the question, select the model, plan exposure and measurement, then interpret the evidence.

001
in your workflow
Connect the product to your experiment.
Marcus Vance
Chief Technology Officer at NexusFlow
Elena Rostova
VP of Strategy at Vertex Global
Multi-chip architecture
One H-Series unit corresponds to nine conventional chips.
Plan conditions and replicates
Discuss how to arrange study conditions and replicates within the multi-chip setup, including the culture and measurement requirements.
002
Applications
Inhalation & Lung
Marcus Vance
Chief Technology Officer at NexusFlow
Elena Rostova
VP of Strategy at Vertex Global
Follow the full study process: define the question, select the model, plan exposure and measurement, then interpret the evidence.

H-Series

One multi-chip unit, corresponding to nine conventional chips.

H-Series brings a multi-chip approach to studies that need more experimental conditions or replicates.

One unit corresponds to nine conventional chips, offering a consolidated setup compared with working with individual chips.

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Platforms

ORGAN-ON-CHIP

S-Series

01

E-Series

02

H-Series

03

S-Series

Follow the full study process: define the question, select the model, plan exposure and measurement, then interpret the evidence.

E-Series

Follow the full study process: define the question, select the model, plan exposure and measurement, then interpret the evidence.

Follow the full study process: define the question, select the model, plan exposure and measurement, then interpret the evidence.

H-Series