Separation, identification, and quantification of proteins at single molecule level is a significant scientific challenge. Here Meller lab introduces a new method utilizing nanochannels to achieve them simultaneously!
Separation, identification, and quantification of proteins at single molecule level is a significant scientific challenge. Here Meller lab introduces a new method utilizing nanochannels to achieve them simultaneously!
Aditya-L1 Mission:
The SUIT payload captures full-disk images of the Sun in near ultraviolet wavelengths
The images include the first-ever full-disk representations of the Sun in wavelengths ranging from 200 to 400 nm.
They provide pioneering insights into the intricate details of the Sun's photosphere and chromosphere.
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@MellerLab uploaded a new preprint ๐จ which shows how proteins can be discriminated, counted and tracked at single molecules level. The dual color separation of whole protein in sub wavelength thin nano channels marks a beginning of next generation protein identification tech.
Kindly read our new manuscript and give precious comments:
Single protein molecules separation, tracking and counting in ultra-thin silicon channels https://t.co/Dy4B5RkeHz
๐ #OpenAccess: "Over 30-Fold Enhancement in DNA Translocation Dynamics through Nanoscale Pores Coated with an Anionic Surfactant" by @Neeraj_Soni_, @NavneetCVerma, Talor, & Meller
https://t.co/jrn8lmVyqk
Our recently published work in @NanoLetters shows that surface treatments on solid-state nanopores can control electro-osmotic flow, significantly improving the performance of Nanopore for biomolecular detection @MellerLab@NavneetCVerma
https://t.co/1k3ZZDyGQA