Next Generation
Biosensing Platform
For Innovative Neuron Interfaces
Use Cases
Brain Computer Interfaces
Using axons instead of wires is a unique advantage of BCI devices as it eliminates the need for biocompatibility of electrodes. The potential density of an axon based array enables a vast increase in the amount of neurons that can be recorded.
Organoid Culture Sensing
Using a neuron-on-chip platform to sense and record signals from organoids allows for real-time monitoring of organoid activity without invasive materials. For neural organoid cultures, this allows for real-time monitoring of electrical activity in small samples.
Customizable Assays
Our neurons can be programmed with a variety of sensitivies to specific biomolecules. Allowing for a wide range of assays that can be performed on via the neuron-on-chip sensing platform, such as toxin sensing or sensitive electrophysiology.
FAQs
What is this neuron biosensing platform?
Our neuron biosensing platform is a hybrid electronic/biological device designed to allow for signal recording from a variety of cultures via neurons. Allowing real-time monitoring of electrophysiological signals and biomolecular activity. It can be used for fundamental neuroscience research, drug discovery, biomolecule sensing, and even as a foundation for future brain-computer interface (BCI) applications.
How do I get one of these devices?
We’re currently in the prototype stage. If you’d like to become an early tester or discuss collaboration opportunities, please reach out at alec@plusten.ai. We’re eager to gather feedback from researchers and innovators who want to explore the platform’s potential.
Why use neurons as sensors compared to traditional electrode-based methods?
Neurons offer a biologically relevant readout for electrophysiological activity and can be engineered for specific biomolecule detection through custom receptor expression. Unlike purely electronic sensors, neuronal networks can respond to subtle chemical or environmental changes in a way that mimics real biological systems.
Which applications can this platform support?
Our platform can be adapted for a wide range of applications, including drug toxicity screening, neurodegenerative disease modeling, neural network behavior studies, and biomolecule sensing (via custom receptor expression). We’re also exploring how it could serve as a proof-of-concept for future BCI research by leveraging axons as ‘biological wires.’
Is the device compatible with my existing lab setup?
The device is designed to fit into standard incubators and work with common lab instruments, including microscopes and electrophysiology amplifiers. We’ll provide detailed specifications on connections and mounting once the prototype is finalized.
Do I need specialized training to operate the platform?
We aim for an intuitive workflow, so our devices come pre-seeded and ready to go. You maintain them with standard cell culture techniques, and connect the electronics to your computer for data acquisition system and real-time monitoring via our software suite. While any new technology has a learning curve, our goal is to keep it as straightforward as possible.
Can I customize the platform for my specific research needs?
Absolutely. We understand that each lab’s research questions may vary. We can discuss tailored electrode layouts, well dimensions, or even specialized coatings. Additonally we can build the sensing neuronsa into a variety of custom devices. Feel free to contact us at alec@plusten.ai to explore custom solutions.
How does this differ from other organ-on-a-chip or microfluidic devices?
Our focus is on leveraging neurons themselves as the sensing element. While many organ-on-a-chip systems rely on microfluidic networks and physical sensors, our platform fosters direct neuron-electronics interfacing. This unlocks unique possibilities in electrophysiological signal capture, neural network modeling, and BCI-oriented research.
© 2025 PlusTen Intelligence
PlusTen Intelligence
319 N Bernardo Ave
Mountain View, CA 94043
Email: alec@plusten.ai