We've just completed the first chapter of CryoEM 101! Learn more about #cryoEM sample prep with videos, animations, illustration in an online textbook format. @shen_utah and I would love your feedback! https://t.co/D31V6WnDCd
How do protein crystals form? Scientists used #cryoEM to observe the earliest stages of #crystal formation, giving them the ability to selectively generate one desired crystal form.
https://t.co/bo4VNtDNip
Out now, and only possible with Salipro: @nature article of membrane protein #cryoEM structure at 3.8 Å – “saposin yielded a marked improvement in the structure“ - #saposin#salipro#membrane#Protein
link: https://t.co/zuTxWBQVDl
This protein-design advance could lead to creatiing materials unlike any in nature and with a range of applications, from diagnostics to nano-electronics.
https://t.co/dyKOyS4Cyo
What we’re about to share caused @brianstoltz70’s “jaw to hit the floor.” Chemists have figured out a new way to learn the 3-D structures of small molecules, such as some hormones and medicines, in way less time than it’s ever been done before. https://t.co/gZltGNLbpY
After 30 years, scientists have captured a nearly complete structure of the HIV-1 envelope protein, a potential target for vaccine development https://t.co/RE4mlUFouj
News & Views: A computational method for designing proteins tailored to bind a small molecule of interest, and use it to make ‘fluorescence-activating’ proteins, is described in a Nature paper. https://t.co/wGbmiswar7
Inspired by natural cellular structures, like this triangular honeycomb, researchers have developed a new method to 3D print materials using a ceramic foam ink. https://t.co/RqH02ODkBa