For many viruses, endocytic entry into their host cells occurs in a series of tightly controlled, consecutive steps involving binding to the cell surface, lateral diffusion, signaling, and internalization.
These results support a model in which cotransin binding to the plug prevents lateral gating by susceptible TMDs, whereas TMDs with increased hydrophobicity and helical propensity can override the cotransin-imposed block.
Our results suggest that TMD/lateral gate interactions facilitate TMD transfer into the membrane, a process that is allosterically modulated by cotransin binding to the plug.
In this study, using direct visualization of single actin filament elongation, we show that actin polymerization kinetics at both filament ends are strongly influenced by the binding of proteins to the lateral filament surface.
Changes in mRNA expression for the ϵ2 subunit across the lifespan appeared to be related to the changes in NMDA receptor binding in the lateral cortex, even though the protein expression of the ϵ2 subunit did not show the same pattern of expression as the mRNA during development.
In the second stage of activation, a suitable substrate can now exploit the primed Sec61 by binding to and further opening the lateral gate.
Note the laceration lateral and inferior to the lateral canthus.
The tibial line went from the lateral femoral condyle to the lateral malleolus.
Similar analyses were also performed on the lateral region corresponding to the lateral corticospinal tract.
Thus, analyte molecules that bind near the end of the nanorod will cause a greater LSPR shift than those binding on the lateral portion.
