Linked from

The 16 pages that link to Allosteric regulation, each with the reason it gives.

• EnzymeRelated: Allosteric molecules alter enzyme activity without occupying the substrate-binding site.

• G protein-coupled receptorRelated: Some GPCR ligands tune receptor responses by binding outside the primary site.

• Enzyme catalysisRelated: It changes enzyme activity through remote binding rather than directly catalyzing substrate conversion.

• Enzyme kineticsRelated: Allosteric enzymes can show rate responses that depart from simple saturation curves.

• Nicotinic acetylcholine receptorRelated: Some drugs and cellular conditions alter receptor activity through sites distinct from the acetylcholine-binding sites.

• Efflux pumpRelated: Allosteric sites may offer ways to inhibit pumps without blocking substrate pathways directly.

• Enzyme inhibitionRelated: Allosteric inhibitors alter enzyme activity without occupying the substrate-binding site.

• Protein phosphorylationRelated: A phosphate can reshape protein structure and alter activity at a distance.

• EnzymologyRelated: Allosteric effects connect enzyme structure to changes in catalytic activity.

• Jacques MonodRelated: Monod’s work on enzyme behavior helped establish allostery as a general mechanism of biological regulation.

• Biochemical cascadeRelated: Allosteric switches can relay activation without changing a downstream protein’s abundance.

• Biomolecular & subcellular processesRelated: It shows how binding at one location can control activity elsewhere in a molecule.