Printed Pt-Electrodes
CSEM Muttenz
PROTOTYPE
Components
[PRINT] Screen printing / S2S [PRINT] Inkjet flex Printing / S2S [PRINT] Gravure Printing / S2S
[R&D PROJECT / TECHNO TRANSFER / CONTRACT RESEARCH] Technology concept development (TRL 2) [R&D PROJECT / TECHNO TRANSFER / CONTRACT RESEARCH] Proof of concept (TRL3: Critical Function or Proof of Concept Established). [R&D PROJECT / TECHNO TRANSFER / CONTRACT RESEARCH] Specific R&D contract research [TECHNICAL SUPPORT FOR SCALE UP] Product prototyping (TRL 4) [TECHNICAL SUPPORT FOR SCALE UP] Manufacturing concept validation
Electronics & Components
Sports Health Environment Consumer electronics
Microelectrode arrays (MEAs) are typically interfacing an electroactive tissue with the bioelectronic systems. Printing techniques, such as inkjet and screen printing, are attractive methods for the manufacturing of a customized MEAs because they allow flexible, low-temperature, scalable, and cost-effective fabrication processes. CSEM fabricated all-printed electrocorticography arrays by inkjet printing of platinum electrodes and screen printing of polyimide as a passivation layer.

 Electrode array size : 1 to 32

Electrode line width : 50-300 um

Electrode line length : up to 10 cm

Electrode line thickness : 0.1 to 1.0 (optional to several microns) um

Substrate material : Polymide (Kapton)

Layout possibility : custom design (kit with rules compatible)

Flexibility : 100 000 cycles with bending radius 9.1 mm, speed: 10mm/s

Electrical resistivity : < 500 (for a custom design) Ohm

Fabrication temperature (low-stress) : close to RT 

Bio-compatibility : yes. Provided by in vivo experiment

#printed#electrodes#Platinum