3D Multielectrode Arrays (3D-MEAs)

MultiElectrode Arrays are Consumables for MEASSuRE: View Catalog

BMSEED’s 3D multielectrode arrays (3D-MEAs) are designed for organoid and cell culture research, allowing accurate electrophysiological recording and stimulation on a stretchable silicone substrate. The system includes a 3D pocket to hold organoids, maintaining shape for enhanced physiological relevance and synchronized network measurements. Customizable in size (1-5 mm diameter, 0.8-2 mm depth), the pocket supports various organoid types. For cell cultures, the dual-chamber microfluidics enable co-culturing and media delivery. With customizable electrode layouts, the 3D-MEAs are ideal for advanced applications in neurobiology, mechanotransduction, and tissue engineering.


In Vitro Research


32pMEA-100-400-4iR-Au-1W and 60pMEA-100-420-4iR-Au-1W

Organoid MEA: Stretchable multielectrode array with fixed 3D Pocket

Features and Benefits

  • organoid does not remodel in pocket

    • retain organoid shape

    • increased physiological relevance

  • recording from a large surface area of the organoid

    • more accurate network synchronization measurements

    • recording & stimulation of electrophysiological activity

  • silicone substrate & pocket

  • customizable pockets: 1-5 mm diameter, 0.3-1.5 mm depth

  • customizable electrode layouts

  • product number (PN): 11-53100 (32-channel), 11-53200 (60-channel)

  • discounted units available for early adopters

    View Technical Specifications (32-channel) pMEA

    View Technical Specifications (60-channel) pMEA

Stretchable microelectrode array with 3D pocket for organoid research

Image (lower left): cerebral organoid in BMSEED’s sMEA with 3D pocket, J. Guo, Emory University


Cell Cultures: stretchable multielectrode array with microchannels for neural axon growth

  • promote structured neuronal networks with axonal guidance to study how neuronal structure correlates to function

  • recording & stimulation of extracellular electrophysiological activity

  • elastically stretchable (silicone) substrate & microstructures

  • customizable patterns & number of electrodes

Image (right): cortical rat neurons seeded in BMSEED’s sMEA with microchannels, ETH Zurich.