Novel wireless millimeter-wave to lightwave signal converters by electro-optic crystals suspended to narrow-gap-embedded patch-antennas on low-k dielectric substrates

Y. N. Wijayanto, H. Murata, Y. Okamura
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Abstract

We propose a new wireless millimeter-wave (MMW) to lightwave (LW) signal converter using an electro-optic crystal suspended to narrow-gap-embedded patch-antennas on a low-k dielectric substrate. Wireless MMW signals can be received by the patch-antennas and converted to LW signals by use of the MMW electric field across the narrow-gap for electro-optic (EO) modulation. An aperture area of the patch-antennas is about 4 times larger than that fabricated on a high-k EO crystal only as the substrate. The MMW electric field across the narrow-gap of the proposed device also becomes 10-times stronger than that using the high-k dielectric EO substrate. Therefore, the conversion efficiency enhancement of approximately 20 dB can be obtained using the proposed device. It is compact, passive, and operated with extremely low MMW distortion in high-speed radio-over fiber communication and measurement systems.
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一种新型无线毫米波-光波信号转换器,其原理是将电光晶体悬挂在低k介电基片上的窄间隙嵌式贴片天线上
我们提出了一种新的无线毫米波(MMW)到光波(LW)信号转换器,该转换器使用悬挂在低k介电衬底上的窄间隙嵌入式贴片天线上的电光晶体。无线毫米波信号可由贴片天线接收,并利用毫米波电场跨窄隙转换为低波信号进行电光调制。该贴片天线的孔径面积约为仅以高k EO晶体作为衬底的4倍。通过该器件窄间隙的毫米波电场也比使用高k介电EO衬底的电场强10倍。因此,使用所提出的器件可以获得约20 dB的转换效率提高。它结构紧凑,无源,在高速无线光纤通信和测量系统中以极低的毫米波失真运行。
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