We are happy to introduce to the world a new family of de novo designed heme enzymes!
This work is the result of a wonderful collaboration between @UWproteindesign and @GreenGroupMIB ! (1/n)
https://t.co/IZM8Qnhvm9
PUMPED that our paper introducing Light-Activated SpyLigation (#LASL) is now live at @NatureChemistry! We show bioactive proteins can be stably photo-assembled from split fragment pairs in solution, in biomaterials, and in living mammalian cells.
https://t.co/or5UgYMEbc
(1/13)
Happy to share our recent breakthrough in computational design of 3D protein crystals. We develop a hierarchical approach to target crystal packing with design three orthogonal PPI interfaces, genetically encoded in their primary sequence, a priori. 1/3 https://t.co/NXoHQVn3mL
Thanks @wang_shunzhi, @unattermann, and many others for this great collaboration, with support from the entire IPD under the supervision of Prof. David Baker.
Excited to share our recent breakthrough in designing protein crystallization. We developed a general approach for designing protein self-assembly into 3D macroscopic crystals (>100 µm) at atomic accuracy. Preprint here: https://t.co/IKTwTfZ1hQ. (1/2)
Designed protein crystals have high solvent content with tunable porosity, survive autoclaving, assemble in crude cell lysate, and can scaffold superlattices of inorganic nanoparticles. These emergent properties make them a powerful platform for biological material engineering.
Excited to share our work on "top-down" reinforcement learning based approach to design proteins with exquisite structural control. The Monte Carlo tree search algorithm generate protein monomers and assemblies, guided by input geometric constraints. 1/4 https://t.co/OQvRqXSEbF