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UID:DSC-22505
DTSTART;TZID=Europe/Berlin:20251208T150000
SEQUENCE:1765175717
TRANSP:OPAQUE
DTEND;TZID=Europe/Berlin:20251208T160000
URL:https://dresden-science-calendar.de/calendar/en/detail/22505
LOCATION:IFW\, Helmholtzstraße 2001069 Dresden
SUMMARY:Körner: Advancing Co-Resonant Micro/Nano-Systems and Bioelectronic
  Interfaces for Next-Generation Devices
CLASS:PUBLIC
DESCRIPTION:Speaker:  Dr. Julia Körner\nInstitute of Speaker: Uni Hannover
 \nTopics:\n\n Location:\n  Name: IFW (B3E.26\, IFW Dresden)\n  Street: Hel
 mholtzstraße 20\n  City: 01069 Dresden\n  Phone: \n  Fax: \nDescription: 
 Interconnected micro- and nano-systems and personalized health care repres
 ent two rapidly advancing future fields that both call for multidisciplina
 ry innovations spanning engineering\, materials science and physics in bot
 h fundamental and applied domains. This presentation highlights two pionee
 ring directions of my research: a co-resonance principle in dissimilar dyn
 amic resonant MEMS/NEMS systems\, and the development of multifunctional c
 omposite materials targeting the seamless integration of biological and in
 organic environments. The concept of co-resonance is based on eigenfrequen
 cy matched coupled resonators with strongly dissimilar material and geomet
 ric properties. Its substantial potential has been comprehensively demonst
 rated for cantilever-based sensors. Thereby\, a micro- and a nanocantileve
 r are linked through the co-resonant state\, enabling the combination of t
 he very high susceptibility of the nanoresonator to external interactions 
 with well-established oscillation detection of the microcantilever. Beyond
  sensing applications\, the co-resonance principle is of general fundament
 al nature. Future research aims to explore its potential for micro- and na
 noscale energy harvesting to power autonomous sensors and corresponding ne
 tworks in remote or inaccessible locations\, as well as to innovate cross-
 physical coupling among electrical\, mechanical\, optical\, and even biolo
 gical systems. Research on multifunctional composite materials focuses on 
 creating bioelectronic interfaces that integrate biological systems with e
 lectronic devices for biomedical applications. In the presented developmen
 ts\, stimulus-responsive hydrogels capable of undergoing volume-phase tran
 sitions under external influences form the core platform. Their properties
  are further refined through the incorporation of inorganic additives such
  as MXenes\, carbon-based materials\, and metal nanoparticles\, enabling p
 recise tuning of electrical\, mechanical\, and responsive characteristics.
  The overarching goal is to merge sensing and stimulation functions within
  biological environments through transducers\, ultimately embedding them i
 nto wearable and implantable devices that advance personalized medicine an
 d lifestyle-oriented technologies.
DTSTAMP:20260805T124110Z
CREATED:20251204T063731Z
LAST-MODIFIED:20251208T063517Z
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