When sodium is pumped out of the cell by the sodium-potassium pump, it helps maintain the cell's resting membrane potential by generating an electrochemical gradient. This process also helps regulate cell volume and is essential for proper nerve and muscle function.
In the sodium-potassium pump, three sodium ions are pumped out of the cell while two potassium ions are pumped into the cell. This movement is powered by ATP, which is hydrolyzed to provide the energy needed for the pump to function.
Sodium-potassium ATPase is a membrane protein that helps maintain the sodium and potassium balance in cells by pumping three sodium ions out of the cell for every two potassium ions pumped in.
During a single cycle of the sodium-potassium exchange pump, three sodium ions are pumped out of the cell while two potassium ions are pumped into the cell against their respective concentration gradients. This process requires energy in the form of ATP.
Sodium ions are pumped out of the cell by the sodium-potassium pump to maintain the cell's resting membrane potential, regulate cell volume, and create a concentration gradient that drives other transport processes. This process requires energy in the form of ATP to actively transport sodium out of the cell against its concentration gradient.
Potassium enters the cell through potassium channels that open in response to changes in membrane potential. Sodium enters the cell through sodium-potassium pumps, which actively transport sodium ions against their concentration gradient.
Sodium ions and potassium ions are pumped in opposite directions. Sodium ions are pumped out of the cell and potassium ions are pumped into the cell.
During active transport in the sodium-potassium pump, three sodium ions are pumped out of the cell while two potassium ions are pumped into the cell against their concentration gradients, using energy from ATP.
In the sodium-potassium pump, three sodium ions are pumped out of the cell while two potassium ions are pumped into the cell. This movement is powered by ATP, which is hydrolyzed to provide the energy needed for the pump to function.
3 sodium ions go out and 2 potassium ions go in
Sodium-potassium ATPase is a membrane protein that helps maintain the sodium and potassium balance in cells by pumping three sodium ions out of the cell for every two potassium ions pumped in.
The sodium-potassium pump is responsible for regulating energy moving in and out of the cell by maintaining the concentration gradients of sodium and potassium ions across the cell membrane. Sodium ions are pumped out of the cell while potassium ions are pumped in, creating an electrochemical gradient that helps cells generate energy and conduct electrical signals.
The Na-K pump actively transports three sodium ions out of the cell and two potassium ions into the cell against their respective concentration gradients. The sodium ions are pumped out of the cell and the potassium ions are pumped into the cell by the action of ATPase on the pump.
Sodium is pumped out of a nerve cell through the action of the sodium-potassium pump, which uses energy in the form of ATP to actively transport sodium ions out of the cell and potassium ions into the cell. This process helps maintain the cell's resting membrane potential and is crucial for nerve cell function.
In a sodium-potassium pump, three sodium ions are pumped out of the cell while two potassium ions are pumped into the cell. This process maintains the electrochemical gradient by pumping ions against their concentration gradients, which is crucial for the proper functioning of cells.
This statement is incorrect. The sodium-potassium pump is a type of active transport protein that uses energy in the form of ATP to pump sodium ions out of the cell and potassium ions into the cell against their respective concentration gradients. This process is essential for maintaining the proper balance of ions within cells.
During a single cycle of the sodium-potassium exchange pump, three sodium ions are pumped out of the cell while two potassium ions are pumped into the cell against their respective concentration gradients. This process requires energy in the form of ATP.
I think you're looking for three ... over the long run. But the trick is that K+ doesn't need to be pumped in. Membrane proteins act as variable sized pore in the membrane (channels) and the potassium flows in under electrostatic forces ... all the work is done pumping the Na+ out.