In depolarization, voltage-gated sodium channels open first, allowing sodium ions into the cell, resulting in action potential generation. This is followed by voltage-gated potassium channels opening to repolarize the cell.
The potassium ion is responsible for depolarization of hair cells in the spiral organ. When deflected, potassium channels open, leading to an influx of potassium ions into the cell and depolarization of the cell membrane.
Depolarization in a hair cell is triggered by mechanical stimulation, such as sound waves or movement, while depolarization in a typical neuron is triggered by chemical signals.
Voltage-gated sodium channels open during the depolarization phase of an action potential, when the membrane potential becomes more positive.
Voltage-gated sodium channels open when the membrane potential reaches a certain threshold during the depolarization phase of neuronal signaling.
The greater influx of sodium ions results in membrane depolarization. This is because sodium ions carry a positive charge, which leads to a decrease in the membrane potential towards zero or a positive value.
Depolarization is the first event in action potential. During depolarization, the sodium gates open and the membrane depolarizes.
Inactivation gates of voltage-gated Na+ channels close, while activation gates of voltage-gated K+ channels open.
During depolarization Na channels are open During repolarization K channels are open
Open the Gates was created in 1985.
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kakashi can open 2 gates
Click on open gates in rally spot
guy can open 6 gates
You have to get a PASS from a monkey or get the key for that gate that is how you open gates.
The activation gates of voltage-gated Na+ channels open, and Na+ diffuses into the cytoplasm.
The potassium ion is responsible for depolarization of hair cells in the spiral organ. When deflected, potassium channels open, leading to an influx of potassium ions into the cell and depolarization of the cell membrane.
When the gates to the ion channels open, sodium ions first rush into the axon at the axon hillock, which is the initial segment of the axon where it connects to the cell body. This influx of sodium ions causes depolarization, triggering an action potential that propagates along the axon. The rapid change in membrane potential at this location is crucial for the initiation of the nerve impulse.