Our disruptive microelectrode array, also known as multielectrode array (MEA), technology revolutionizes brain research by enabling a deeper investigation of neuronal networks. Our pioneering work with CMOS technology has allowed researchers to visualize signal propagations between thousands of cells at a sub-millisecond scale for the first time.
Read moreBy collecting high-resolution electrophysiological data from neurons, cardiac cells, brain organoids, and human-derived stem cells, our microelectrode array (multielectrode array) technology opens up new possibilities in drug discovery by enabling functional imaging assays, the identification of network functional and dysfunctional states and the precise evaluation of pharmacological responses.
Explore our full line of microelectrode arrays, also known as multielectrode arrays (MEAs), our solution to your experimental needs.
The Next generation of in vitro HD-MEA systems
Fully redesigned to provide the most complete experience with high-density MEA technologies, BioCAM DupleX introduces a new standard in electrophysiology. Thousands of bi-directional electrodes to have the full control of your experiments.
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Discover a new dimension with high-resolution in vitro electrophysiology
Stemming from more than 10 years of development, our high-resolution CMOS-MEA system combines the latest integrated circuit computing performance with a durable and compact design.
Unleash the power of your neuronal preparations
High density microelectrode arrays (HD-MEAs) featuring 4096 simultaneous readout channels and 16 stimulation sites arranged in different configurations meeting various experimental needs.
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Take your research further with customized accessories
Designed to fit our HD-MEA platforms, our accessories take your research in drug discovery, brain organoids, neuronal networks, and human-derived stem cells to the next level.
Gathering high-resolution electrophysiological data has never been easier
Our advanced acquisition and analysis software is designed to manage dense electrophysiological data sets. BrainWave facilitates real-time visualization and the extraction of key metrics from high-density microelectrode array, or multielectrode array (HD-MEA), chips.
Explore the capabilities of our high-density microelectrode arrays, also known as multielectrode arrays (HD-MEAs), and software tools by taking a look at these experimental examples and downloading the latest version of BrainWave.
10.1109/IJCNN.(2019).8851864
Hiroaki Norimoto, Lorenz A. Fenk, Hsing-Hsi Li, Maria Antonietta Tosches, Tatiana Gallego-Flores, David Hain, Sam Reiter, Riho Kobayashi, Angeles Macias, Anja Arends, Michaela Klinkmann & Gilles Laurent
Nature (2020). https://doi.org/10.1038/s41586-020-1993-6
Christian Puller, Sabrina Duda, Elaheh Lotfi, Yousef Arzhangnia, Christoph T. Block, Malte T. Ahlers and Martin Greschner
Journal of Neuroscience 5 February 2020, 40 (6) 1302-1310; DOI: https://doi.org/10.1523/JNEUROSCI.1374-19.2019
We would like to provide an update on 3Brain AG, especially after the press conference held by the Federal Council last Friday.
Due to the events of COVID-19 in Switzerland. We would like to inform and ensure everyone on 3Brain's flow of operations as we will continue to stick to our commitments to our customers. Events will be ensured as far as we can and we will update all personnel by email for any changes ahead of time to avoid inconveniences on your behalf.
If you do have any inquiries, please feel free to get in contact directly with us at: info@3brain.com
We attended Neurex's first workshop of 2020. With Dr.Sercan Deniz, in Strasbourg, meeting up with many others in the neuroscientific field over the theme of the "Cerebellum".
One of our first conferences into 2020!
Showing the true potentials of HD-MEAs as to how we bring CMOS technology together with MEAs. Displaying not only the BioCAM DupleX, but also the upcoming BioCAM MultipleX!
As written by JNeurosci, "Electrical coupling between different types of ganglion cells exists in mammalian retinae, highlighting complexity of cross-talk between distinct CNS neural pathways."
This publication shows that with the right tools, researchers still redefine studies that have been taught for well over 20 years!