Interested in learning about nanofluidics?
Check out our comprehensive review in @ACSChemRev on fluids and electrolytes under confinement 👉 https://t.co/aksXNlfm6X (1/9)
Emergent behavior🐜🐜🐜 takes the form of low-frequency oscillator. Otherwise, very hard to get electronically at this scale🔍. Important for #colloidalrobotics🤖
Congrats - @JingFanYang1@BerruetaThomas
@BerruetaThomas’s and my paper, with terrific MIT collaborators (co-first author @JingFanYang1, thank you!), on emergent behavior in active particles in @NatureComms is out. 1/5
(open access, with supplement)
Web: https://t.co/aQ6IyjfAHP
ePDF: https://t.co/ZHzw8HMTZH
New content online: Carbon nanotube uptake in cyanobacteria for near-infrared imaging and enhanced bioelectricity generation in living photovoltaics https://t.co/DjEausskvC
@VoloKoman and co from The Strano Lab developed an oscillating #laser to enhance the signal from #fluorescent sensors embedded deep into a tissue!
https://t.co/Hr47od3svy
The Strano Lab found a way to dramatically improve the signal emitted by fluorescing nanosenors.
In a Bridge Project funded study, they used a fluorescent sensor to monitor the effectiveness of chemotherapy drugs in glioblastoma.
https://t.co/IXQrUeLzdX
Excited to share our method for ultra-deep tissue 🧠optical sensing🔦that will help diagnosing diseases and monitoring treatments wirelessly💡 https://t.co/7G4n7SIQsl
The method is based on oscillating excitation wavelength, separating sensor and background signals, reducing SNR, and providing self-referencing feature
New preprint out! @JingFanYang1 and I study the emergence of low freq. oscillations in active particles, the role asymmetry plays in controlling them, and how these can generate on-board currents to drive microactuators (shown at the end of the thread).
https://t.co/B51r70hFE1