Adaptive microelectronics reshape independently and detect e

Adaptive microelectronics reshape independently and detect environment for first time


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IMAGE: Thanks to sensors and artificial muscles on the microscale, future microelectronics will be able to take on complex shapes and create bioneural interfaces with sensitive biological tissue without causing damage.
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Credit: IFW Dresden/Chemnitz University of Technology
Flexible and adaptive microelectronics is considered an innovation driver for new and more effective biomedical applications. These include, for example, the treatment of damaged nerve bundles, chronic pain, or the control of artificial limbs. For this to work, close contact between electronics and neural tissue is essential for effective electrical and mechanical coupling. In addition, potential applications arise from the production of tiny and flexible surgical tools.

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Germany , Chemnitz , Sachsen , German , Oliver Schmidt , Oliverg Schmidt , Boris Rivkin , Daniil Karnaushenko , Materials Research , Institute For Integrative Nanosciences , German Academy Of Science , Chemnitz University Of Technology , Leibniz Institute For Solid , Intelligent Systems , Integrative Nanosciences , Leibniz Institute , Solid State , Chemnitz University , Gottfried Wilhelm Leibniz Prize , German Academy , Technology Engineering Computer Science , Nanotechnology Micromachines , ஜெர்மனி , சாச்சேன் , ஜெர்மன் , ஆலிவர் ஶ்மிட் , போரிஸ் ரிவ்கின் , பொருட்கள் ஆராய்ச்சி , ஜெர்மன் கலைக்கழகம் ஆஃப் அறிவியல் , புத்திசாலி அமைப்புகள் , திட நிலை , ஜெர்மன் கலைக்கழகம் , தொழில்நுட்பம் பொறியியல் கணினி அறிவியல் ,

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