Motivation to finally make a Twitter! Excited to say our paper with @LongLabCal is now out in @ScienceMagazine. https://t.co/12T3ij5dQK
We developed water purification processes that can desalinate water and capture targeted solutes (like heavy metals) at the same time. (1/3)
The team modified the standard cation-permeable membranes used in electrodialysis with functionalised porous aromatic frameworks capable of selectively binding contaminants
https://t.co/QHS5TAggvD
@CBroderick_Chem @LongLabCal@ScienceMagazine Thanks!! That's a great question that I've also wondered a lot about. I think it'd be possible if an adsorbent was embedded with really strong, selective bonds toward lithium. But it's of course super difficult to make such an adsorbent...
Motivation to finally make a Twitter! Excited to say our paper with @LongLabCal is now out in @ScienceMagazine. https://t.co/12T3ij5dQK
We developed water purification processes that can desalinate water and capture targeted solutes (like heavy metals) at the same time. (1/3)
Now in @sciencemagazine: water purification approaches that efficiently desalinate water and capture targeted solutes at the same time. These methods are enabled by exceptionally selective and tunable adsorptive membranes. @UCB_Chemistry@BerkeleyLab https://t.co/yR5wBN0p1J
I’m beyond grateful for the many contributions from Jeff Urban and Ngoc Bui from @BerkeleyLab, @JovanKamcev, @MercedesKTaylor, and many @UCB_Chemistry labs and facilities that let me borrow equipment. It was a lot of fun teaming up with these brilliant scientists! (3/3)
These methods are enabled by robust composite membranes that contain solute-selective adsorbents. The choice of adsorbent determines the selectivity of the membrane – here we used porous aromatic framework (PAF) adsorbents to recover mercury, copper, iron, or boric acid. (2/3)