@WellcomeTrust and @BBSRC funded projects studying the structure and function of the #Cdiff S-layer with @GillDouce1, @PerBullough, @PSSalgado and @RobFagan
Bug Slayers is a collaborative effort involving 4 research groups, 4 postdoctoral scientists and 2 PhD students @SheffieldUni, @UofGlasgow & @UniofNewcastle In this thread I’ll introduce our team
@RobFagan@GillDouce1 @pssalgado @MOrmsby8 @PaolaLanzoni @Joekaryotic We also determined another cool #BugSlayer structure, a tour de force from @barwinskasendra. Confirms our model for how SlpA packs into a lattice, with minor adjustments of charged interfaces.
New paper from the @BugS_layers team! We show that the S-layer is necessary for virulence in mice and that the in vivo environment exerts a strong selective pressure that favours restoration of the S-layer in an S-layer-null mutant
https://t.co/Jj6B0SsMCw
What do archaeal cell surfaces look like?
Check out our latest preprint on the structure of the S-layer of the archaeon Sulfolobus acidocaldarius! https://t.co/KJ9ZOdYPjM!
Next Monday @pssalgado will share our work on #Cdiff S-layer at the Cell Envelopes Symposium - register to join and please spread the word!
https://t.co/PTDfhNPutM
Many new questions to answer: how do things go in/out of the #Cdiff cells? How can we disrupt this armour? How does the #SlayerStructure link to function and infection? Lots to keep us busy, but for now, a huge thank you to the whole @BugS_layers team! 11/11
8. Removing the most exposed SLPL domain (D2), doesn’t change the overall SlpA structure and a functional S-layer is assembled. However, #Cdiff then becomes susceptible to lysozyme, even though the pores are still very narrow (16A). #SlayerStructure#BugSlayers 10/n
The spectacular structure of the protective armour of superbug #Cdiff revealed for the 1st time by @pssalgado (@MolMecNCL) @BugS_layers in @NatureComms shows the close-knit outer layer, like chain mail, protects the bug & provides a new target for drugs. https://t.co/DTdvJfCJYo