AI · Product

Cortical Labs CL1

Commercial biological computer combining living neurons with silicon chips.

Visit corticallabs.com ↗

The CL1 is a benchtop biocomputer that integrates lab-grown neurons cultured on a silicon microelectrode array with a life-support system. It allows researchers to deploy code to living biological neural networks and record real-time feedback using Cortical's Biological Intelligence Operating System (biOS). It provides an animal-free, high-efficiency platform for neuroscience, drug discovery, and synthetic biological intelligence research.

What it's for

  • Run computational experiments directly on living biological neural networks
  • Screen drug compounds and evaluate disease effects on neural function without animal testing
  • Study real-time biological learning and neural adaptability in simulated environments
  • Connect actuators, sensors, and external software to living tissue via USB and cloud APIs

Features

  • Integrated life support keeping neurons viable for up to 6 months
  • Bi-directional stimulation and recording microelectrode interface
  • Biological Intelligence Operating System (biOS) for running interactive simulated worlds
  • Self-contained computing unit requiring no external life-support infrastructure
  • Onboard touchscreen for monitoring live data, environmental metrics, and assays
  • USB connectivity and API access for hardware integrations and remote experiments

Pricing

Paid. Available for commercial purchase; pricing available on request via sales inquiries.

Details

Type
Product
Category
AI
Topic
Biocomputing
Open source
No
Platforms
other, Web, API
For
Neuroscientists, biomedical researchers, pharmacologists, and biocomputing developers.
Alternative to
Traditional in-vitro microelectrode array (MEA) recording systems, Animal testing models for neuropharmacology
Tags
biocomputing, synthetic biology, neuroscience, hardware, wetware, neural networks

Why it was saved

  • @ai_livex, 6 March 2025: Provides a platform to run code on living neural tissue with higher energy efficiency and adaptability than traditional computing, targeting drug discovery, medical research, and robotics.

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