since the pulse is generated in one wave .....so.........
The pulse repetition period is the inverse of the pulse repetition frequency. Therefore, if the pulse repetition frequency is 1 kHz, the pulse repetition period would be 1 millisecond (1/1000 seconds).
probably (the carrier frequency +- the maximum frequency of the pulse train)/(the carrier frequency) but pulses have a lot of harmonics
To calculate the time for one pulse in a drive system, you need to know the pulse frequency or pulse rate of the drive. The time per pulse is the inverse of the pulse frequency. For example, if the pulse frequency is 100 Hz, the time for one pulse would be 1/100 = 0.01 seconds, or 10 milliseconds.
since the pulse is generated in one wave .....so.........
The motion of a pulse is affected by the motion of the source. If the source is moving towards the observer, the pulse will be compressed and its frequency will increase. If the source is moving away from the observer, the pulse will be stretched out and its frequency will decrease.
NO; frequency is the number of cycles per second or micro second. Pulse is the number of pulses per second in a pulsed Radar
Pitch Pitch
For the Radar Case: The bandwidth of the pulse is the reciprocal of the Pulse Duration (called Pulse Width) as any filtering needs to be able to detection and follow the pulse shape and its edges. The pulse width is the AM modulation to a Fixed Frequency Carrier Frequency and the AM modulation will be greater bandwidth then the Carrier Frequency. As you are attempting to reject receiving other emissions and noise that do not match your own emissions such that your receiver is "match filtered" to your emissions, your receiver bandwidth will be at least the reciprocal of the pulse width but is lightly to be a smaller bandwidth then the reciprocal of the pulse width.
Pulse Repetition Frequency.
frequency of an oscillator crystal
A: FM means frequency Modulation meaning the frequency remain the same. pulse modulation the frequency can vary
The property of frequency cannot describe a single wave pulse, as frequency refers to the number of wave cycles passing a given point per unit of time. Since a single wave pulse consists of just one wave cycle, it does not have a frequency in the same way a continuous wave would.