Sharing our job post with you all:

Our group at @tum.de is looking to hire a postdoc! It is funded by the @erc.europa.eu Project NANeurO to engineer next generation nanoscale bioelectronics. Please share, and reach out if you'd like to join us in Munich! Details here: www.tinyurl.com/NANeurOPostDoc

Sharing our job post with you all:

Our group at @tum.de is looking to hire a postdoc! It is funded by the @erc.europa.eu Project NANeurO to engineer next generation nanoscale bioelectronics. Please share, and reach out if you'd like to join us in Munich! Details here: www.tinyurl.com/NANeurOPostDoc

Sharing our job post with you all:

Our group at @tum.de is looking to hire a postdoc! It is funded by the @erc.europa.eu Project NANeurO to engineer next generation nanoscale bioelectronics. Please share, and reach out if you'd like to join us in Munich! Details here: www.tinyurl.com/NANeurOPostDoc

So sorry that you are all having to deal with this. 😢

I was wondering the same, as here (Germany) we just get a bank transfer (e.g. I was sent the first 3 years of money for a 5 year project). So fundamentally there’s nothing stopping us (my university) from taking the money and running. As always, you’re a great source of info, Denis!

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Very happy to be on Bluesky, and have the online science community back! It's already been one great week of catching up with you all during coffee or lunch breaks.

www.science.org/content/arti...

I will post a full description later, but you can also check out this paper from our group that came out this year, in which we shared our model system that we use to analyze and engineer the nanoelectrodes:

onlinelibrary.wiley.com/doi/abs/10.1...

If you are interested in this field, please check out this review paper that just came out from our group. The field of nanoscale neurostimulators is very new, but we've been growing quickly in recent years. Here, we've tried to organize it all together.

www.sciencedirect.com/science/arti...

The nanoelectrodes are made of magnetoelectric materials, which means they work by converting a magnetic signal into an electric signal. So, we can wirelessly power them using a magnetic signal. (More beautiful artwork by Moritz).

We make wireless neural stimulators out of nanoparticles, or "nanoelectrodes". We can wirelessly power them to generate a local electric field. So, they can work like a very small, wireless bioelectronic, and be used to e.g. stimulate the brain. (Artwork by student Moritz Hocher shows the idea).

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Really nice, thanks so much!

I'd love to join, thanks!