General Purpose Coarse-Grained Force Field 
Impressive work on using lipid nanoparticles to deliver drugs to tumour cells, featuring large scale Martini simulations. Snapshots show the difference in penetration efficiency between a PEGylated lipid nanodisc (a) and a PEGylated liposome (b), both with a diameter of 40 nm, before (t = 0 ns) and after (t = 1,750 ns) being pulled through a 20 nm pore. For details, see Dane et al., Nature Materials, 2022.
Simulations with Martini 3 reveal how lipids unplug pyroptotic pores formed by gasdermin-A3.
The group of Lindorff-Larsen performed a systematic study on the behavior of intrinsically disordered proteins (IDPs) with Martini 3. Comparing to SAXS data, they show that Martini 3 generally underestimates the global dimensions of the IDPs, which can be fixed by slightly increasing protein-water interactions. Although not an ideal solution, for the time being this seems like a pragmatic approach when modeling IDPs (as well as multi-domain proteins that are connected via flexible linkers) with Martini 3. For details, read the paper ! Thomasen et al, JCTC, 2022.
No worries, Martini 3 is not too sticky, but 'Sticky Martini' here refers to a novel way of letting Martini beads stick together on purpose, to mimic chemical reactions. See the work of Carvalho et al., just published in Npj Computational Materials.
