Inverse Design of DNA-Programmable Protein Colloidal Crystals | Journal of the American Chemical Society @CHADNANO@NUChemistry@NorthwesternU https://t.co/z8v8wIUKoc
Excited to share my latest work in @J_A_C_S, in which we extend the principles of colloidal crystal engineering to biological building blocks and introduce a new DNA design that gives the best crystallinity of DNA-guided nanoparticle assemblies thus far
New from the Mirkin Lab in JACS: “Inverse design of DNA-programmable protein colloidal crystals.”
DNA hybridization guides proteins into programmable crystalline lattices with tunable structure and size.
Read: https://t.co/2JvC9zo6pg
Cleavable Hydrophobic Anchors Optimize Immunomodulatory Effects of Oligonucleotides | Journal of the American Chemical Society @CHADNANO@NUChemistry@NorthwesternU https://t.co/PduQ6qvHR5
CRISPR’s efficiency triples with a new spherical nucleic acid delivery system from Chad Mirkin’s lab.
Published today in PNAS.
Read more about the discovery here: https://t.co/aNbET4qxyZ
New research from @CHADNANO and first author @Hanzhenyu reveals a reversible, strain-promoted polymerization process within cyclic #DNA.
Recently published in @ScienceAdvances it opens doors to creating materials with extraordinary properties.
➡️ https://t.co/Np5DBjiN8q
🧬DNA is the genetic blueprint of life, but it can also be made into functional materials.🧬
In @ScienceAdvances, we report an unusual biophysical property of DNA and how it can be harnessed to make degradable polymers. @CHADNANO
https://t.co/inYy4EmDdX
If you happened to miss it, you can watch the farewell lecture of Sir Fraser Stoddart (@sirfrasersays) now. Truly inspirational! https://t.co/GMW4Jletcv
A central challenge in the use of CRISPR lies in its delivery across different cells and tissues. In @J_A_C_S we show that surface modification of Cas9 proteins enables efficient delivery and gene editing w/o transfection reagent: https://t.co/VrFRI6sgyh