
Song Lin Lab
412 posts

Song Lin Lab
@SongLinLab
Electrifying organic chemistry since 2016 | Cornell University | For group updates, find us on LinkedIn!





Organic synthesis meets nanofabrication! Introducing SPECS: light-powered microchips that turn any well plate into a wireless high-throughput electrosynthesis reactor at the µL scale. Ideal for reaction discovery, optimization, and library synthesis! nature.com/articles/s4158…

Organic synthesis meets nanofabrication! Introducing SPECS: light-powered microchips that turn any well plate into a wireless high-throughput electrosynthesis reactor at the µL scale. Ideal for reaction discovery, optimization, and library synthesis! nature.com/articles/s4158…

Organic synthesis meets nanofabrication! Introducing SPECS: light-powered microchips that turn any well plate into a wireless high-throughput electrosynthesis reactor at the µL scale. Ideal for reaction discovery, optimization, and library synthesis! nature.com/articles/s4158…

Organic synthesis meets nanofabrication! Introducing SPECS: light-powered microchips that turn any well plate into a wireless high-throughput electrosynthesis reactor at the µL scale. Ideal for reaction discovery, optimization, and library synthesis! nature.com/articles/s4158…

Organic synthesis meets nanofabrication! Introducing SPECS: light-powered microchips that turn any well plate into a wireless high-throughput electrosynthesis reactor at the µL scale. Ideal for reaction discovery, optimization, and library synthesis! nature.com/articles/s4158…

Organic synthesis meets nanofabrication! Introducing SPECS: light-powered microchips that turn any well plate into a wireless high-throughput electrosynthesis reactor at the µL scale. Ideal for reaction discovery, optimization, and library synthesis! nature.com/articles/s4158…

Congratulations to Dr Maxx Arguilla (University of California, Irvine, United States) and Dr Phillip Milner (Cornell University, United States) for being selected as the runners-up of the 2024 Journal of Materials Chemistry Lectureship. blogs.rsc.org/jm/2024/11/19/…

No hydridic C–H bond is safe! Back to back in @ChemRxiv today, we report oxoammonium catalyzed oxidation of N-substituted amines and ethers! Featuring high TON, 100 g scale-up, a novel NMR experiment for radical quantification, & QSPR! (1/3)






No hydridic C–H bond is safe! Back to back in @ChemRxiv today, we report oxoammonium catalyzed oxidation of N-substituted amines and ethers! Featuring high TON, 100 g scale-up, a novel NMR experiment for radical quantification, & QSPR! (1/3)




