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Carrier suppression in quadruple frequency modulation by cascaded optical external modulators for millimeter-wave generation

Carrier suppression in quadruple frequency modulation by cascaded optical external modulators for millimeter-wave generation
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摘要 The optical carrier suppression in optical quadruple frequency modulation by cascaded external modulators is investigated theoretically and experimentally. Theoretical analysis demonstrates that the optical carrier suppression ratio is related with not only the initial phase difference of electrical signals applied on the two modulators, but also the optical phase shift between the two modulators. The maximum suppression ratio can be achieved when the total phase difference is equal to nπ+π/2 (n = 1, 2,…), which is verified by experiments. By properly controlling the total phase shift, 40-GHz millimeter-wave is generated by using a 10-GHz radio frequency (RF) source and the modulators. The optical carrier suppression in optical quadruple frequency modulation by cascaded external modulators is investigated theoretically and experimentally. Theoretical analysis demonstrates that the optical carrier suppression ratio is related with not only the initial phase difference of electrical signals applied on the two modulators, but also the optical phase shift between the two modulators. The maximum suppression ratio can be achieved when the total phase difference is equal to nπ+π/2 (n = 1, 2,…), which is verified by experiments. By properly controlling the total phase shift, 40-GHz millimeter-wave is generated by using a 10-GHz radio frequency (RF) source and the modulators.
出处 《Chinese Optics Letters》 SCIE EI CAS CSCD 2009年第3期188-190,共3页 中国光学快报(英文版)
基金 supported by the National "973" Program of China under Grant No. 2006CB302806
关键词 Frequency modulation Millimeter wave devices Millimeter waves Phase shift Frequency modulation Millimeter wave devices Millimeter waves Phase shift
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参考文献10

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