A new paper from our lab, on bioresorbable, injectable, self-assembling conductive hydrogels for irreversible electroporation evaluated in a glioblastoma model and demonstrate delivery as a drape in a resection cavity and via CED, and catheter delivery.
https://t.co/IIaAnXioF7
A new paper from our lab, on bioresorbable, injectable, self-assembling conductive hydrogels for irreversible electroporation evaluated in a glioblastoma model and demonstrate delivery as a drape in a resection cavity and via CED, and catheter delivery.
https://t.co/mITk6Dbdo5
PEDOT is going one-dimensional! Lithography-free conductive polymer nanowires were interfaced with both algae and human blood stem cells paving the way for 1D organic bioelectronics. @lunduniversity@nanolund@MultiparkL@HjortsX@OlssonRoger
https://t.co/e75mhg8dgj
Happy to share our new publication in @WileyGlobal Advanced Science where we for the first time demonstrate spatial controlled in vivo formation of bioelectronic using photopatterning.
https://t.co/Vc3U5qIuok
@NanoLund@lunduniversity@MultiparkL@BioelDrop
We are excited to announce a new publication from our team: In Vivo Photopolymerization of Conductive Structures. This work represents a great team effort, with special recognition to @FredrikEk3 bringing it all togethe
@MultiparkL@ZebrafishRock
https://t.co/BmJBLmk1O0
We are hiring a postdoc to join our research on dynamically tuneable metasurfaces. Relevant skills and interests include nanofabrication (EBL), phase-gradient metasurfaces, and redox-tunable materials. Check the link for more info. RT=great
https://t.co/kH40w6OUNK
Vid akut oregelbunden hjärtrytm krävs snabb hjälp. Men en hjärtstartare finns inte alltid till hands. Nu har svenska forskare lyckats injicera nanopartiklar som lägger sig i en ring runt hjärtat och via dem går det att styra hjärtats rytm utifrån. https://t.co/RWMVwKgv66
We are excited that our work on "an injectable cardiac stimulator" is out, with the PhD student, Umut Aydemir @umz25468433. We are really happy that the Novo Nordisk Foundation @novonordiskfond support this ongoing project.
@MultiparkL@NanoLund
https://t.co/9cTMEmaZkK
We are looking for a researcher in organic chemistry to work on the synthesis of self-organizing injectable organic bioelectronics, with applications in cancer and neurodegenerative diseases.
https://t.co/N1l6mMqfOC
My dear colleague @OlssonRoger presenting futuristic research already today! Injecting self assembling polymer electrodes into the heart to develop war zone peacemakers…. Amazing and super entertaining talk! @lunduniversity@goteborgsuni@OMC_GU@Naturvetenskap
@JOC_OL@Xing_Group_NTU@JOC_OL The concept and design principle of the probes used in this work looks exceptionally close to our work from 2019 (https://t.co/lltCUoxqOd) and the independently published work of Tatiboet, Sabot and @SchulerMarie1 from 2019 (https://t.co/dn5CemCpKX)
We are looking for a PostDoc (2 years) in organic chemistry with focus on self-organizing bioelectronics, please help out and retweet https://t.co/DdE01Sm1YQ
Nice to see our work on aminoratjadone derived, non-covalent CRM1 inhibitors published in J. Med. Chem.! Congrats to the team and thanks for the wonderful collaboration with Qingxiang Sun’ s team and @BronstrupLab https://t.co/YcohOltlod
.@OlssonRoger and colleagues demonstrate minimally invasive implantation of bioresorbable electrodes in the brain that form from water-dispersed nanoparticles in situ @Lundsuni@goteborgsuni#BiotechNatureComms
https://t.co/RJiOlB4L4l
In green, you can see regions in a zebrafish brain starting to fire action potentials (calcium imaging) when the implanted self assembled polymer electrode relays external stimuli.
I’m happy to share our latest publication @NatureComms focusing on in situ assembly of temporary organic bioelectronics for nonchronic treatments using a minimally invasive implantation method and bioresorbable materials.
https://t.co/wRoL6DIgZJ