Every Cell has a Story to Tell

Accelerate discovery with
next-generation electrophysiology

Empower your research and drive innovation with high-density microelectrode arrays

Characterize

Explore the electrophysiological properties of your in-vitro brain models with high precision, from neuronal populations down to subcellular dynamics.

Screen

Scale up and accelerate your electrophysiological assays with unmatched efficiency, delivering results and insights that truly matter.

Control

Push the boundaries of electrophysiology by designing your own recording and stimulation paradigms or interfacing with engineered microstructures and devices.

Max

imize the potential of every cell and amplify it for every

Maximize the potential of every cell and amplify it for every Well

Well

Single-Well HD-MEA

MaxOne

Versatility and functionality in one compact device
Discover the MaxOne
Multi-Well HD-MEA

MaxTwo

Maximize your cell functional assays
Discover the MaxTwo

Your Success, Our Commitment

Cutting-edge technology, tailored solutions, and expert support to drive your science forward.

Ultimate signal detection

Capture neuronal activity with unmatched fidelity from population networks to individual axons. Combining industry-leading low background noise with high electrode density, MaxWell Biosystems sets a new standard for superior MEA signal quality.

Our Technology
Our Technology

Versatile solution to your needs

Empower your research with HD-MEA platforms tailored to your workflow - from basic research to screening, neurocomputing, and beyond. Push the boundaries of MEAs with MaxWell Biosystems' advanced technology and interfacing capabilities.

Our Products
Our Products

Accessible knowledge hub

Accelerate your success by exploring easily accessible documentation, benefit from our personalized expert support and training, and connect with our collaborative user community during MaxWell Biosystems events.

Our Resources
Our Resources

Prof. Yoshiho Ikeuchi

Institute of Industrial Science, The University of Tokyo, Japan

“Today, our MaxOne System plays a central role in our work. In fact, it has become a defining element of our research. It allows us to grow organoid-derived neural networks directly on the array surface and record their activity over long periods. This enables us to observe temporal-spatial dynamics, correlations, and sequential patterns of activity, all within a single, integrated system. Given the complexity of the networks we’re studying, the fact that the technology is also easy to use makes it even more valuable.”

Prof. Kenneth Kosik

University of California, Santa Barbara, USA

"MaxOne opened so many doors in regards to questions of brain wiring, genetics, drug discovery, access to circuitry through organoids, which could not be addressed in any other way."

Prof. Feng Guo

Intelligent BioMedical Systems (IBMS) Lab, Indiana University Bloomington, USA

“If you have one electrode covered by many neurons, you acquire average information, which is not enough for specific computing conditions. What we really aim is high resolution at a single-neuron level, something we can achieve with MaxOne HD-MEA.”

Dr. Tetsuya Tanaka

Ricoh Biosciences, Inc., Baltimore, Maryland, USA

“Unlike other commercially available MEA systems, MaxTwo has an outstanding capability to measure and track action potentials in single neurons due to how the electrodes are arrayed in such a high density manner."

Dr. Kateryna Voitiuk

University of California, Santa Cruz, USA

“The MaxOne HD-MEA Chips allowed us to align neural activity to histology at comparable resolution. Also, it enabled us to study network activity and the structured spatial dynamics across the sub-regions of the hippocampus during seizure-like activity and optogenetic silencing.”

Blandine Clément

Laboratory of Biosensors and Bioelectronics, ETH Zürich, Switzerland

“The flat electrodes make attaching PDMS structures much easier, leading to a simple, low-risk protocol - exactly what you want in the lab. Plus, the excellent signal-to-noise ratio was key throughout my project for detecting axons with very low amplitude signals.”

previous
Next

UPCOMING EVENT

2nd Microelectrode Arrays in Neuroscience Social

Learn More
Learn More

Grant

Travel Grant for SfN 2025

Learn More
Learn More

Resources

All Resources
All Resources
A. Bucci et al.

Synchronization of visual perception within the human fovea

Nature Neuroscience
|
2025
H.-C. Lin et al.

Human neuron subtype programming via single-cell transcriptome-coupled patterning screens

Science
|
2025
K. Voitiuk et al.

A feedback-driven brain organoid platform enables automated maintenance and high-resolution neural activity monitoring

Internet of Things
|
2025
S. Wang et al.

Tellurium nanowire retinal nanoprosthesis improves vision in models of blindness

Science
|
2025
K. E. Carstens et al.

Application of a high-density microelectrode array assay using a 3D human iPSC-derived brain microphysiological system model for in vitro neurotoxicity screening of environmental compounds

Archives of Toxicology
|
2025
L. F. Messore et al.

Chronic silencing of Drd1a-Cre+ neurons impairs dopaminergic-driven cortical activation

Frontiers in Neuroanatomy
|
2025
J. Zhao et al.

Targeting PGE2 mediated senescent neuron improves tumour therapy

Neuro-Oncology
|
2025
L. Sifringer et al.

An Implantable Biohybrid Neural Interface Toward Synaptic Deep Brain Stimulation

Advanced Functional Materials
|
2025
S. Setsu et al.

Swift induction of human spinal lower motor neurons and robust ALS cell screening via single-cell imaging

Stem Cell Reports
|
2025
T. Duenki and Y. Ikeuchi

Insulative Compression of Neuronal Tissues on Microelectrode Arrays by Perfluorodecalin Enhances Electrophysiological Measurements

Advanced Healthcare Materials
|
2025

Recent Publications