| About this Abstract |
| Meeting |
MS&T23: Materials Science & Technology
|
| Symposium
|
Next Generation Biomaterials
|
| Presentation Title |
Combining Traditional Electronics Packaging and NanoJet Aerosol Printing to Develop an Implantable High-density In-line Connector |
| Author(s) |
Janet L. Gbur, William Kozak, Anuvi Gupta, Marcelino Essien, Dave Keicher, Douglas Shire |
| On-Site Speaker (Planned) |
Janet L. Gbur |
| Abstract Scope |
In implanted medical devices such as neuro-modulation systems, in-line connectors are sometimes used to improve the repairability and upgrade-ability of a system. A delicate balance of functionality, reliability, modularity, and component volume must be considered for in-line implantable connectors to be successful. Systems that can deliver therapeutic amounts of stimulation and/or collect EMG signals while minimizing the size and number of components in the sub-cutaneous space will benefit patient health through the reduction of complications related to infection or biofilms. In this work, the use of a hybrid of traditional fabrication and NanoJet aerosol printing to create a 32-channel high-density connector is discussed. The ability to print the electronic traces and the silicone matrix, creates what is anticipated to be a more customizable design approach. This allows for a modular, scalable implantable connector and the ability to further increase connection density, thus minimizing volume while preserving electrical and mechanical performance. |