PTMs have type-dependent effects on protein backbone flexibility: N-glycosylation has little effect, CDK2 phosphorylation rigidifies the site and destabilizes two distant phosphorylation regions, and actin methylation increases local deformation.
Trapping of ultracold polar molecules with a Thin Wire Electrostatic Trap
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abstract
We describe the realization of a dc electric-field trap for ultracold polar molecules, the thin-wire electrostatic trap (TWIST). The thin wires that form the electrodes of the TWIST allow us to superimpose the trap onto a magneto-optical trap (MOT). In our experiment, ultracold polar NaCs molecules in their electronic ground state are created in the MOT via photoassociation, achieving a continuous accumulation in the TWIST of molecules in low-field seeking states. Initial measurements show that the TWIST trap lifetime is limited only by the background pressure in the chamber.
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Investigation of the impact of PTMs on the protein backbone conformation
PTMs have type-dependent effects on protein backbone flexibility: N-glycosylation has little effect, CDK2 phosphorylation rigidifies the site and destabilizes two distant phosphorylation regions, and actin methylation increases local deformation.