由图可以看出,N值越大,模糊尖峰越尖锐占空比越低,离开延迟轴振幅减低越

It can be seen from the figure that the larger the value of N, the sharper the peak of the fuzzy peak, the lower the duty cycle, and the slower the amplitude decrease from the delay axis. Moreover, the surrounding side peaks are almost as high as the main peak, and the entire volume is mainly concentrated in these regular, discretely distributed peaks, and a small part of the volume is distributed on the frequency axis and the line parallel to the frequency axis. The area between these parallel lines is a large blank area. It can be seen from the fuzzy graph that as long as the interference target and the observation target have a relative distance, the appropriate pulse width and pulse interval can be selected so that the interference target cannot interfere with the observation target. In this method, as long as T is greater than the maximum action distance, most of the volume of the fuzzy map is pushed to a place where it does not work, leaving only a small part to work. That is, the negative interference is improved by N times on average. This plays a very good role in eliminating the negative interference with wide distribution in both time and frequency.

As can be seen from the figure, the larger the N value, the lower the sharper the duty-peremptiable ratio, and the slower the delay axis amplitude decreases. And the surrounding side peak and the main peak are almost high, the total volume is mainly concentrated in these regular, discrete distribution of peaks, there is a small part of the volume is distributed in the frequency axis and parallel to the frequency axis of the line. The strip between these parallel lines is a large blank space. As can be seen from the fuzzy diagram, as long as the interference target and the observation target have a relative distance, the appropriate pulse width and pulse interval can be selected so that the interference target can not interfere with the observation target. This method, as long as The T is greater than the maximum action distance, the most of the volume of the fuzzy graph is pushed to the point where it does not work, leaving only a very small part to work. That is, the average increase in negative interference is N times. This is good for eliminating negative interference that is widely distributed in both time and frequency.

As can be seen from the figure, the higher the n value, the sharper the fuzzy peak, the lower the duty cycle, and the slower the amplitude of the departure delay axis decreases. Moreover, the peripheral peak and the main peak are almost high, and the whole volume is mainly concentrated in these regular and discrete distribution peaks, and a small part of the volume is distributed on the frequency axis and the line parallel to the frequency axis. The area between these parallel lines is a large blank area. It can be seen from the fuzzy diagram that as long as there is a relative distance between the jamming target and the observation target, the appropriate pulse width and pulse interval can be selected to make the jamming target unable to interfere with the observation target. In this method, as long as t is greater than the maximum action distance, most of the volume of the fuzzy graph is pushed to the place where it doesn't work, leaving only a small part to work. In other words, the average improvement of negative interference is n times. It has a good effect on eliminating the negative interference which is widely distributed in time and frequency<br>