Linked from

The 30 pages that link to Sodium-potassium pump, each with the reason it gives.

• OsmoregulationRelated: Maintaining ion gradients helps control cell volume and supports solute transport.

• Adenosine triphosphateRelated: Its ATP consumption maintains ion gradients across the plasma membrane.

• NeuronRelated: It maintains ion gradients that support neuronal excitability.

• Voltage-gated sodium channelRelated: It maintains the sodium gradient that channels draw upon.

• AldosteroneRelated: Aldosterone increases pump activity in kidney cells, supporting sodium retention and potassium secretion.

• Membrane potentialRelated: It maintains the sodium and potassium gradients that support resting voltage.

• Serotonin transporterRelated: The ion gradients it maintains help power serotonin uptake.

• SaltRelated: Dietary sodium from salt contributes to the ion balance regulated by this pump.

• Salt glandRelated: Its ion gradients help drive salt movement across secretory cells.

• Potassium ionRelated: It maintains the concentration gradients that sustain cellular K⁺ levels.

• Sodium ionRelated: It maintains the transmembrane Na⁺ gradient used in cell physiology.

• Norepinephrine transporterRelated: Its ion gradients indirectly power the sodium-coupled transport performed by NET.

• Resting membrane potentialRelated: It maintains the ion gradients that underlie resting voltage and adds a small direct voltage effect.

• Extracellular fluidRelated: Its ion gradients help maintain differences between extracellular and intracellular fluid.

• Electric fishRelated: It maintains ion gradients that make electrical signaling possible.

• Monoamine transporterRelated: Its ion gradients help power monoamine uptake across neuronal membranes.

• Depolarization (neuroscience)Related: It maintains ion gradients that support neuronal membrane voltage and depolarizing currents.

• Body fluid compartmentsRelated: It helps sustain the ion gradients that distinguish intracellular from extracellular fluid.