Answer:
Acute Pain related to sore throat
Explanation:
- A pain that lasts for less than 3 to 6 months is classified as acute pain and since the client has a history of pain for 2-day duration, it falls under the definition of acute pain.
- In the report given by the client, there is no display of any major defining characteristics of anxiety such as restlessness, concern about lifestyle changes, sleep disturbances.
- Therefore, from the symptoms, it can be concluded that the client is suffering from acute pain due to sore throat.
<span>Information gathered from observing a plant grow 3 cm over a two-week period is called data</span>
I believe it is temperature or rainfall. All of the factors are improtant but temperature comes first, cuz the temperature can also determine the air, and soil doesn't make a difference. Longitude doesn't have to do with an ecosystem.
The reduced potential causes hundreds of <u>voltage-gated sodium</u> channels to open on that part of the cell membrane. The depolarization of the cell causes more of <u>voltage-gated sodium </u>channels to open in adjacent parts of the cell membrane. This begins the wave of of <u>depolarization</u> moving down the axon. Depolarization begins at the <u>axon hillock.</u>
Explanation:
When there is no neuron signaling it becomes polarized, termed as resting membrane potential (RMP) at a threshold voltage (around -55 mV), due to the action of the sodium-potassium pump and the potassium leak channels.
When a change in the RMP occurs, depolarization takes place which causes the voltage-gated sodium channels to open and sodium ions rush into the nerve cell which in turn will increase the voltage threshold to nearly around +40 mV and also charges the neuron positive. This depolarization moves down the axon. This increase in threshold stops the sodium influx and opens the potassium channels to rush the potassium out of the cell.
All these actions decrease the membrane potential leading to a wave of depolarization and going back to resting state. Depolarization begins depending upon the potential gradient at the axon hillock.
