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Brain organoid with neural electrode interface

Organoid Electrophysiology

Intra-organoid penetrating probes with Radiens signal quality, archive triage, and signed data provenance. Built for academic labs now. Architected for pharma throughput next.

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Brain organoids are the fastest-growing model system in neuroscience — three-dimensional neural tissues grown from human stem cells, capable of spontaneous electrical activity, network formation, and responses to pharmacological agents. The electrophysiology tools haven't kept up. We're building them.

Why NeuroNexus

Probe Expertise

210+ silicon-probe designs and 22 years of fabrication experience. We know how to build interfaces for neural tissue — including tissue that grows in a dish.

Vertical Integration

We manufacture the electrodes and build the software. Organoid-specific probe geometries paired with Radiens acquisition and analysis from day one.

Active Collaborations

Co-developing with leading organoid research labs. Our approach is driven by real experimental needs, not speculative product roadmaps.

Radiens Platform

Per-well signal quality and analysis across batches — the same platform behind our in vivo workflows.

Collaboration-Driven Development

Organoid electrophysiology is a young field with unique challenges — three-dimensional tissue geometry, long-term culture stability, multi-organoid experiments, and the need to track maturation over weeks or months.We're not building in isolation. Our organoid initiative is co-developed with leading research labs, ensuring that every design decision is grounded in real experimental workflows. The goal is purpose-built hardware and software that works from the first recording session.

3D Tissue Geometry

Electrode designs optimized for three-dimensional organoid structures, not adapted from planar in vivo probes.

Long-Term Monitoring

Chronic recording capabilities for tracking organoid maturation over weeks to months.

Multi-Well Compatibility

Scalable configurations for high-throughput organoid experiments and pharmacological screening.

Organoid electrophysiology research

What We're Building

Our organoid electrophysiology initiative is in active development — purpose-built hardware and optimized Radiens workflows designed together from the ground up.

Organoid Probe Arrays

Flexible and rigid electrode configurations designed specifically for 3D organoid tissue — surface arrays, penetrating probes, and multi-well formats.

Maturation Analytics

Radiens modules for tracking organoid development through electrophysiological markers: spike rates, burst patterns, network synchrony, and connectivity metrics.

Organoid Data Management

Radiens workflows for organoid lineage tracking, differentiation protocols, developmental staging, and longitudinal comparison across batches.

We're actively partnering with leading organoid research groups to validate designs, refine workflows, and ensure that what we build works in real experiments. If your lab is pushing the boundaries of organoid electrophysiology, we'd like to hear from you.
Partnership Inquiry

Powered by Radiens

Organoid workflows run on the same Radiens platform that powers our in vivo recording solutions. One environment for acquisition, signal quality, analysis, and provenance.Lite is free and perpetual. Pro adds cloud sorting and domain analytics. Whether you record from rodent cortex or a cultured organoid, the software adapts to the preparation.

Signal Quality Intelligence

Per-well SNR and impedance during acquisition. Sessions below threshold flagged before offline analysis.

Archive Triage (on the roadmap)

On the roadmap: find the wells worth analyzing before running ICA on 24 of them.

Data Certification (on the roadmap)

On the roadmap: data certification — dataset provenance, carried further.

Radiens — organoid acquisition interface
Throughput-compatible architecture, decision-grade endpoints, audit-ready data trust

For Drug Screening and Discovery

The organoid platform is architected for pharma throughput from v1 — decision-grade quantitative endpoints (firing rate, burst metrics, spectral power, cross-organoid synchrony) with published reliability data and a throughput path from academic-scale to 96-well automation.

Decision-Grade Endpoints

Validated quantitative readouts with published reliability. Reference-compound dose-response libraries in development.

Throughput-Compatible

v1 at 8–24 wells, v1.5 at 24–96 wells, v2 full 96-well automation. Well geometry, probe indexing, DAQ multiplexing designed for scale from day one.

Audit-Ready Data Trust (on the roadmap)

On the roadmap: data certification — dataset provenance carried further, for audit-ready trust without the compliance overhead.

Organoid Electrophysiology — FAQ

Can I record from brain organoids with NeuroNexus hardware today?

Multi-electrode arrays for 3-D organoid and in-vitro recording are in the catalog; a purpose-built organoid platform is in development.

How is organoid recording different from in-vivo probes?

3-D tissue needs arrays that interface across the organoid volume, with chronic protocols for maturation tracking rather than acute insertion.

What software analyzes organoid electrophysiology data?

Radiens handles spike sorting, burst metrics, spectral power, and cross-organoid synchrony from the same acquisition runtime.

Talk to our team about your organoid research goals, collaboration opportunities, or early access.

Interested in organoid electrophysiology?

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NeuroNexus

Neural probes, data acquisition systems, and analytics software for neuroscience research. Designed and manufactured in Ann Arbor, Michigan.

sales@neuronexus.com
+1 734 913 8858

640 Avis Drive, Suite 200, Ann Arbor, MI 48108

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