Low resolution
High resolution
High resolution in 3D
Increased complexity and data depths
High-definition BioSPU core
Electrodes mounted on coated pillars
First 3D CMOS-chip
4,096 gold-coated sensory electrodes
Bio-compatible polymer isolation
Microfluidic channels
Bidirectional cell-electronic interface
On-chip signal processing
Current flat technologies cannot measure the majority of neurons in a tissue or organoid.
Our first-in-class chip design comes with unique potential:
Measurement supremacy
Reproducible probing of cytoarchitecture,
label-free deep access to biologically relevant cells.
Integrated microfluidics
Increased cell viability,
Flawless compound delivery.
Retain tissue integrity
Easy, non-destructive anchoring,
multiple uses, quick turnover.
Measurement supremacy
Reproducible probing of cytoarchitecture, label-free deep accessto biologically relevant neurons.
Integrated Microfluidics
Increased cell viability,Flawless compound delivery.
Retain tissue integrity
Easy, non-destructive anchoring, multiple uses, quick turnover.
Activity footprint of 3D organoids & tissues.
Image courtesy of: a:head bio AG and University of Pavia
CorePlate™ 1W -3D 38/60/90 enables the investigation of 3D cellular networks at unprecedented depths and resolution. Our real-time biosignal processing microchip broadens the concept of label-free functional imaging beyond optical approaches.
Our bidirectional pixel array technology empowers researchers to communicate with cells directly through targeted sending and reading of biosignals. Compared to other cell-electronic interfaces, CorePlate™ 1W -3D 38/60/90 has many unique advantages:
More signal than flat technologies
Increased robustness and sensitivity
Preserves tissue integrity
New mechanistic insights and phenotypes
Drug screening and biomarker discovery
Gain unrivaled access to the complexities of biological systems
>20x
Sensed
Cells
Activity map superimposed to the image of the organoid mounted on the 3D chip.
Image courtesy of: a:head bio AG
3D chip captures 20-50x more signal than flat technologies
Increase the robustness and sensitivity of your recording
Discover hitherto unknown connectivity and network dynamics
Allows for phenotypic screening and biomarker discovery
Non-destructive to cytoarchitecture
Brain slices 2D recording
Brain slices 3D recording
Response to sodium-channel blocker TTX