Phased array system based on dispersive delay line
A delay line and phased array technology, applied in the field of phased array systems, can solve the problems of aperture effect, output waveform distortion, beam deflection, etc., and achieve the effects of eliminating aperture effect, good integration and easy integration
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Embodiment 1
[0029] In this embodiment, a phased array system based on a four-unit dispersion delay line is taken as an example, including a first channel, a second channel, a third channel and a fourth channel.
[0030] combine figure 2, the four output ports of the first power divider 1 are respectively connected with the first mixer 2, the fourth mixer 12, the seventh mixer 22 and the tenth mixer 32, and the first channel includes the second power Divider 6, first mixer 2, second mixer 7, third mixer 9, first adjustable local oscillator frequency source 4, second adjustable local oscillator frequency source 5, first dispersion delay line 3. The second dispersion delay line 8, the first filter 10 and the first antenna 11, wherein the two output ports of the second power divider 6 are connected to the first mixer 2 and the third mixer 9 respectively; The two channels include a third power divider 16, a fourth mixer 12, a fifth mixer 17, a sixth mixer 19, a third adjustable local oscilla...
Embodiment 2
[0039] The radio frequency signal is a narrow pulse modulation signal, combined with Figure 7 , the local oscillator signal generated by the first adjustable local oscillator frequency source 4 passes through the second power divider 6, and the power is divided to obtain the local oscillator signal A and the local oscillator signal B, and the radio frequency signal is multi-channeled through the first power divider 1. , a radio frequency signal V after power division 1 (t) and the local oscillator signal A through the first mixer 2, down-converted to obtain the intermediate frequency signal V 2 (t), V 2 (t) a certain delay time is generated by the first dispersion delay line 3, and becomes the delayed intermediate frequency signal V 3 (t), V 3 (t) The local oscillator signal generated by the second adjustable local oscillator frequency source 5 passes through the second mixer 7, and obtains an intermediate frequency signal V with a constant frequency after down-conversion ...
Embodiment 3
[0043] The radio frequency signal is a non-point frequency signal with a wide bandwidth, combined with Figure 7 , the local oscillator signal generated by the first adjustable local oscillator frequency source 4 passes through the second power divider 6, and the power is divided to obtain the local oscillator signal A and the local oscillator signal B, and the radio frequency signal is multi-channeled through the first power divider 1. , a radio frequency signal V after power division 1 (t) and the local oscillator signal A through the first mixer 2, down-converted to obtain the intermediate frequency signal V 2 (t), V 2 (t) a certain delay time is generated by the first dispersion delay line 3, and becomes the delayed intermediate frequency signal V 3 (t), V 3 (t) The local oscillator signal generated by the second adjustable local oscillator frequency source 5 passes through the second mixer 7, and obtains an intermediate frequency signal V with a constant frequency afte...
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