Broadband high-harmonic suppression terahertz triple-balanced frequency doubler and method
A frequency doubler and high harmonic technology, which is applied in the field of broadband high harmonic suppression terahertz triple-balanced frequency doubler, can solve the problems of not meeting the needs of terahertz test instruments and their engineering applications, and achieve Eliminate impedance matching branches, compact structure, good harmonic suppression effect
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Embodiment 1
[0054] Such as Figure 1-3 As shown, Embodiment 1 of the present disclosure provides a novel broadband high harmonic suppression terahertz triple-balanced frequency doubler topology, such as figure 2 shown.
[0055] The topology mainly includes: 90° input bridge, which works in the fundamental frequency band, 180° input balun, which also works in the fundamental frequency band; frequency multiplier circuit 1 and frequency multiplier circuit composed of 4 interconnected diodes 2; 180° output balun, which works in the 2nd harmonic frequency band; 90° output bridge, which works in the 2nd harmonic frequency band. As shown above, the advantages of the broadband terahertz triple-balanced frequency doubler proposed in this embodiment include: all components can be realized by planar circuit technology, the structure is simple, and it is easy to integrate; Good harmonic suppression characteristics.
[0056] The input terminal of the broadband high harmonic suppression terahertz t...
Embodiment 2
[0067] Embodiment 2 of the present disclosure provides a novel broadband high harmonic suppression terahertz triple-balanced frequency doubler, using the frequency doubler provided in Embodiment 1;
[0068] The radio frequency signal enters the frequency doubler through the input terminal of bridge 1;
[0069] At the output end of bridge 1, there are two signals of 0° phase and 90° phase of equal amplitude;
[0070] The 0° phase signal enters the input terminal of balun 1, and the 90° phase signal enters the input terminal of balun 2;
[0071] At the output of balun 1, the 0° signal is divided into two signals of 0° phase and 180° phase of equal amplitude and enters the frequency multiplier circuit 1;
[0072] At the output end of Balun 2, the 90° signal is divided into two signals of 90° phase and 270° phase of equal amplitude and enters the frequency multiplier circuit 2;
[0073] After the nonlinear change of the frequency multiplier circuit and the synthesis of the balun...
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