In the publication related to this dataset, we report on the screen printing of stretchable, graphene-based conductors for use in wearable technology. The conductors remained conductive even under 100% strain and demonstrated high fatigue resistance to cyclic strains of 20-50%. Using photonic annealing, the sheet resistance of the printed conductors was reduced from ca 34 Ω □−1 mil−1 to
van Hazendonk, L. S., Pinto, A. M., Arapov, K., Pillai, N., Beurskens, M. R. C., Teunissen, J. P., Sneck, A., Smolander, M., Rentrop, C. H. A., Bouten, P. C. P. & Friedrich, H. (Corresponding author), 13 Sept 2022, In: Chemistry of Materials.34, 17, p. 8031–804212 p.
Research output: Contribution to journal › Article › Academic › peer-review
van Hazendonk, L. S. (Contributor), Pinto, A. M. (Creator), Arapov, K. (Creator), Pillai, N. (Creator), Beurskens, M. R. C. (Creator), Teunissen, J. (Creator), Sneck, A. (Creator), Smolander, M. (Creator), Rentrop, C. H. A. (Creator), Bouten, P. C. P. (Creator), Friedrich, H. (Creator) (6 Nov 2023). Data and code related to the publication: Printed Stretchable Graphene Conductors for Wearable Technology. 4TU.Centre for Research Data. 10.4121/703fd633-9de8-4977-a05f-4b648cb1e94d.v1