Authors
Giovanni A Salvatore, Jenny Sülzle, Filippo Dalla Valle, Giuseppe Cantarella, Francesco Robotti, Petar Jokic, Stefan Knobelspies, Alwin Daus, Lars Büthe, Luisa Petti, Norbert Kirchgessner, Raoul Hopf, Michele Magno, Gerhard Tröster
Publication date
2017/9
Journal
Advanced Functional Materials
Volume
27
Issue
35
Pages
1702390
Description
Recent advances in biomaterials, thin film processing, and nanofabrication offer the opportunity to design electronics with novel and unique capabilities, including high mechanical stability and biodegradation, which are relevant in medical implants, environmental sensors, and wearable and disposable devices. Combining reliable electrical performance with high mechanical deformation and chemical degradation remains still challenging. This work reports temperature sensors whose material composition enables full biodegradation while the layout and ultrathin format ensure a response time of 10 ms and stable operation demonstrated by a resistance variation of less than 0.7% when the devices are crumpled, folded, and stretched up to 10%. Magnesium microstructures are encapsulated by a compostable‐certified flexible polymer which exhibits small swelling rate and a Young's modulus of about 500 MPa …
Total citations
20172018201920202021202220232024122193839363919
Scholar articles
GA Salvatore, J Sülzle, F Dalla Valle, G Cantarella… - Advanced Functional Materials, 2017