The impulse response is important for amplifier performance because it shows how the amplifier responds to sudden changes in input signals. A good impulse response indicates that the amplifier can accurately reproduce fast-changing signals, leading to better overall performance and fidelity in audio reproduction.
IIR is infinite impulse response. FIR is finite impulse response.
impulse response is exponential increasing with respect to time.
The impulse response of an R-L circuit is an exponentially decaying signal. It represents the behavior of the circuit when subjected to a Dirac delta function input or an impulse signal. The response decays over time due to the inductor's energy storage capability.
The short pathway that carries the impulse for an automatic response is called a reflex arc. It involves sensory neurons, interneurons in the spinal cord, and motor neurons to quickly produce a reflex action in response to a stimulus, bypassing the brain.
It tells you what the system does to the input signal(s) to generate the output signal(s). The transfer function can be expressed in either the time domain or the frequency domain, depending on whichever is easier to deal with in the application.
A nerve impulse travels from your leg to your brain through sensory neurons. Once in the brain, the impulse is processed, and a response is generated. The response travels back to your leg through motor neurons to initiate movement or action.
To calculate impulse using mass and velocity, you can use the formula: Impulse mass x change in velocity. This means that you multiply the mass of an object by the change in its velocity to determine the impulse. Impulse is a measure of the change in momentum of an object.
We can divide filters two types based on the length of the impulse resopnse 1. FIR where the impulse responce is finite 2. IIR where the impulse response is infinite
Reflex
acetylcholine is released from presynaptic neurons in response to a nerve impulse
To find velocity using impulse and mass, you can use the formula: velocity impulse / mass. Impulse is the change in momentum, which is calculated by multiplying the force applied to an object by the time it is applied. By dividing the impulse by the mass of the object, you can determine the velocity at which the object is moving.