Enabling Autonomous Sensor Nodes: Low-Power Nano-Sensor/Electronics Building Blocks based on Tunable Carbon Nanotube Electro-Mechanical Resonators
Wanda Andreoni EPFL
Nico De Rooij EPFL
Laszlo Forro EPFL
Oliver Gröning EMPA Thun
Adrian Ionescu EPFL
Maher Kayal EPFL
Bradley Nelson ETHZ
Dimos Poulikakos ETHZ
Project Description
The project's goal was to demonstrate concepts and devices for ultra-low power, highly miniaturized functional blocks for sensing and electronics. At the core are carbon nanotube mechanical resonators, which can be tuned via straining over a wide frequency range, offer an unprecedented sensitivity to strain or mass loading, and all these with a very low power consumption.
Magnetothermally responsive C/Co@PNIPAM-nanoparticles enable preparation of self-separating phase-switching palladium catalysts Martin Zeltner, Alexander Schaetz, Max L. Hefti, and Wendelin J. Stark Journal of Materials Chemistry
Magnetic Silyl Scaffold Enables Efficient Recycling of Protecting Groups Alexander Schätz, Martin Zeltner, Thomas D. Michl, Michael Rossier, Roland Fuhrer, and Wendelin J. Stark Chemistry
Carbon Modifications and Surfaces for Catalytic Organic Transformations Alexander Schaetz, Martin Zeltner, and Wendelin J. Stark ACS Catalysis
Martin Zeltner, Robert N. Grass, Alexander Schaetz, Stephanie B. Bubenhofer, Norman A. Luechinger, and Wendelin J. Stark Stable dispersions of ferromagnetic carbon-coated metal nanoparticles. Preparation via surface initiated atom transfer radical polymerization Journal of Materials Chemistry
