They combine HS-AFM with molecular dynamics 🖥️ and nanomechanical measurements to show that IP6 rewires interactions between capsid proteins, favors the open state, and makes the lattice more resistant 💪🏻 to mechanical fatigue 3/3

They identify a structured region that binds and activates DDX11, an enzyme involved in DNA replication 🧬. Preserving the RNA fold despite changing its sequence retains this function, whereas disrupting the fold impairs chromosome cohesion 3/3

They combine experiments 🔬 and theory 📖 to reveal how the friction contrast produced by atomic defects depends on their depth. The results establish friction as a sensitive probe of individual defects in 2D materials. 3/3

The broader message is that for synthetic 2D materials such as borophene, the metal substrate is part of the chemistry, not an inert stage. Controlling this interaction could offer a route to anisotropic, atomically precise 1D electronic structures. 3/3

One particularly interesting aspect is the nanoscale perspective of the work 🔬. The study follows the formation of silicon carbide nanodust from atomic and molecular precursors ⚛️, highlighting the importance of characterizing matter at the nanometre scale 4/4

They show that tip-molecule interactions tilt the CO, break symmetry, and lift vibrational degeneracy, causing a measurable blueshift. The effect depends on local chemistry, opening IETS as a sharp tool for surface physics & molecular identification 🔬 3/3

We usually think electrons “live” on atoms ⚛️. The authors use #STM combined with theory to show that the electronic state is shifted off-site, even in an otherwise conventional band. It challenges a very basic picture of electrons in solids 3/3