Increasing the stimulus voltage in the simulation affect action potential mainly because increasing the current will automatically increase the voltage.
Ramp voltage is a voltage that can be steadily increasing or decreasing.
Unless you are using 'potential' in the general sense (i.e. "What is the possible voltage?"), there is no such engineering term as 'potential voltage'. Voltage is a synonym for 'potential difference', so your expression would then mean "What is the potential potential difference?"Do not mix up 'potential' with 'potential difference' (voltage); they are two different things.
The forward voltage at which the current through the junction starts increasing rapidly, is called the knee voltage or cut-in voltage.
hi my question is why to use de DVR end eplain why i do to use the simulation and studieng of the Dynamic Voltage restorer why matlab.
Yes, changes to the stimulus voltage can affect the duration of the latent period in muscle contractions or neural responses. A higher stimulus voltage may lead to a more rapid depolarization of the cell membrane, potentially shortening the latent period. Conversely, a lower voltage may result in a longer latent period due to slower depolarization. However, the specific effects can vary depending on the type of tissue and its excitability.
Increasing the stimulus voltage above the threshold value results in recruiting more nerve fibers to generate action potentials. This leads to a greater number of action potentials being generated simultaneously along the nerve, resulting in a larger compound action potential amplitude being recorded.
The action potential is generated when a stimulus causes a change in the electrical potential across the cell membrane, resulting in the opening of voltage-gated ion channels. This allows an influx of sodium ions, causing depolarization of the membrane and initiation of the action potential.
No, there must be a sufficient voltage summed up from all the inputs to be at or above the trigger voltage. Usually a single input is not sufficient.
Yes, it can be because threshold and rheobase both are the voltage required to generate an action potential. The difference lies in that the treshold can be a voltage higher than rheobase.
The activation gates of voltage-gated Na+ channels open, and Na+ diffuses into the cytoplasm.
Ramp voltage is a voltage that can be steadily increasing or decreasing.
During the absolute refractory period, the neuron is incapable of generating another action potential regardless of the stimulus intensity, as the voltage-gated sodium channels are inactivated. Once these channels have reset during the relative refractory period, a strong enough stimulus can trigger an action potential again.
neurotransmitters from the presynaptic neuron must be released and binded to the ligand gated sodium channels to increase the membrane potential (increase the charge) until it reaches the threshold of the trigger zone which is -55 millivolts.
Unless you are using 'potential' in the general sense (i.e. "What is the possible voltage?"), there is no such engineering term as 'potential voltage'. Voltage is a synonym for 'potential difference', so your expression would then mean "What is the potential potential difference?"Do not mix up 'potential' with 'potential difference' (voltage); they are two different things.
Action potentials are generated in response to a long stimulus above threshold because it allows for the full development of the depolarization phase. This prolonged depolarization leads to the activation of voltage-gated sodium channels, triggering the rapid influx of sodium ions and initiating the action potential. A sustained stimulus ensures that the membrane potential remains above threshold for a sufficient time to generate an action potential.
The relationship between the amplitude of muscle response and the voltage of the stimulus is generally linear. As the voltage of the stimulus increases, the muscle response increases in amplitude up to a certain point. Beyond that point, further increases in voltage may not significantly increase the muscle response amplitude or could lead to muscle fatigue or damage.
Yes, a stimulus needs to reach a certain threshold level of strength in order to generate a nerve impulse. This threshold is required to depolarize the cell membrane and initiate the action potential. If the stimulus is not strong enough to reach this threshold, no nerve impulse will be generated.