We had a great turnout (1000+) of people from different ages, different interests in ur Open Day yesterday. Thanks everyone for making it a big success. Few pics from our BioLabs demonstration/presentations.
#Chemistry#openday#maxplanckinstitute#Science@maxplanckpress
This latest Chem Sci paper from Maria Alessandra Martini, James A. Birrell, Patricia Rodríguez-Maciá and colleagues highlights how the binding of exogenous cyanide can be used to determine new active sites [FeFe] hydrogenases.
Read for free:
https://t.co/Nzwl54vBL1
This beautiful [FeFe] hydrogenase structure is the focus of a recent Chemical Science publication which you can read, free, here:
https://t.co/Nzwl54vBL1
This is the first spectroscopy and computational characterisation of exogenous CN− interacting with [FeFe] hydrogenases.
Now recruiting a post-doctoral research associate to work on metalloprotein interactions at Durham University (UK). Prior experience in biophysical studies of metalloproteins is desirable.
https://t.co/jQvjIzqNIR
Out in @J_A_C_S now! We show that oxidation products of dithionite inhibit [FeFe] hydrogenases, which has led to incorrect assignment of catalytic intermediates. This should act as a warning when using dithionite as a reductant in metalloenzyme research. https://t.co/fvPVYhgp6C
Out now in Coord Chem Rev: "The Catalytic Cycle of [FeFe] Hydrogenase: A Tale of Two Sites". Wolfgang Lubitz, Edward Reijerse, Maria Martini, @_PatriRM and I review development of models of the catalytic cycle of FeFe H2ase and discuss future directions.
https://t.co/fEvEdtJ6ZE
My first @NatureCatalysis paper 😊https://t.co/dCgJ2sLw0s Glad I could help @NicolasPlumere @VincentFourmond @SECLab_MPI_CEC with this excellent work. H2ase keeps its reversibility in a redox polymer allowing it to go both ways, oxidising & producing H2 with low overpotential.
It was a pleasure to collaborate with my former PhD advisor Zhiguang Xiao on this review article about how to determine metal-binding affinities of proteins, just out in Biochemical Journal: https://t.co/ktygMbxgAf @METALSBBSRCNIBB@DurBiol @Royalcom1851
Happy to be part of this brilliant work, out now in @NatureComms.
Our metalation calculator reveals how inside cells CobW acquires cobalt for vitamin B12 biosynthesis, while other G3E GTPases bind zinc.
Congrats @TRYbioscience and the team @DurBiol@vitaminB12lab@rjmorton_solar
@thecopperdoctor @LouisaJStewart1@mbiojournal@blacksciblog Congratulations Karrera, Louisa & the team!! 🥳🎉
I read (and enjoyed!) the preprint and I look forward to reading the updated paper at the weekend!