Vedran Đerek

Very stimulating work! Proud to be a part of the team and congratulations to my former PhD student Aleksandar Opančar on his excellent work; now a part of @eglo_physchem's team.

Excited to share our understanding the mechanisms of temporal interference (TI): rdcu.be/eKaTa. We have established that the stimulation is driven by the kHz carrier, and there is no evidence selective demodulation of the AM envelope, at least in axonal stimulation.

Doing numerical modeling of stimulation electrodes? Here's some fun summer reading for you :D Choosing the right electrode representation for modeling real bioelectronic interfaces: a comprehensive guide doi.org/10.1088/1741-2… via @ioppbio @eglo_physchem

@Tony_C_Schmidt @vdjerek @karin_kornm @lindawaldherr @tuskenmauer @UcalMuammer @PatzSilke @eglo_physchem @schra1

Building and understanding ultra-thin 3D structured photo-capacitive neurostimulation devices - read all about it! 🇨🇿🇭🇷 @CEITEC_Brno @PMFZAGREB @eglo_physchem iopscience.iop.org/article/10.108…

Review on macroscale electronic and ionic conduction in biomaterials, together with Nadav Amdursky and Paul Meredith: onlinelibrary.wiley.com/doi/10.1002/ad… featuring, among others: proteins, melanins, and our old friend indigo

Patterning your favorite organic electronic materials by photolithography just got easier! Our paper on aqueous lift-off photolithography of organic pigments and PEDOT:PSS is out: bit.ly/2P1Qlul #LiU @LOE_at_LiU @eglo_physchem

We have played with the bioelectronic macromolecule melanin and found it is also a "semiconductor" photocatalytic material, suitable for fabrication of photoelectrodes. Again, the faradaic production of peroxide is the dominent reaction. pubs.rsc.org/en/content/art…

Meet the organic photocapacitor - our work on neurostimulation / artificial retina devices is out! We are moving forward with new ideas based on this platform. If you are interested in PhD or postdoc opportunities in this topic PM me! onlinelibrary.wiley.com/doi/abs/10.100…