Our conference paper on #optomechanical #nanocrystalline silicon for low-power devices operating at GHz frequencies can be found here https://ieeexplore.ieee.org/document/10343647
High Frequency Optoelectromechanical Nanocrystalline Silicon Nanobeams

Nano-optoelectromechanics is an emerging field with prospects for efficient and low-power devices for information technology operating at GHz frequency range. To capitalize the prospects, a flexible and up-scalable technology platform has to be established. Nanocrystalline silicon has only recently been used in nano-optoelectromechanical systems with very promising results. Here we investigate further the properties of nanocrystalline silicon relevant for optoelectromechanics and demonstrate operation of nanobeams at several gigahertz frequencies.

Scientists of the Ural Federal University have described the processes of #magnetization reversal of #nanocrystalline alloys used as raw materials for 3D printing of #magnetic systems.
#MaterialScience #Nanotechnology #Physics #sflorg
https://www.sflorg.com/2023/12/ms12132301.html
Scientists Have Developed a Powder Model for 3D Printing Magnets

Permanent magnets are products made of hard magnetic materials capable of maintaining the state of magnetization for a long time.

`We developed a #hydrogel infusion-based additive manufacturing (AM) technique using two-photon #lithography to produce metals in prescribed 3D-shapes with ∼100 nm feature resolution. We demonstrate hierarchical microstructures of as-AM-fabricated Ni #nanopillars (D ∼ 130–330 nm) to be #nanoporous and #nanocrystalline, with d ∼ 30–50 nm nanograins subtending each ligament in bamboo-like arrangements and pores with critical dimensions comparable to d.`

https://pubs.acs.org/doi/10.1021/acs.nanolett.3c02309

#3Dprinting #nano