Rui Jiang, Lei Gao, Lei Yang, Wenzhe He, Jun Wang, Qian Wu, Yong Sun, Quanying Wu, Yongqiang Chen
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引用次数: 0
摘要
我们提出了一种在单模微带腔中主动控制电磁诱导透明(EIT)类似物的新方法。该空腔侧面耦合了一对变容二极管加载的分环谐振器(SRR)。类似 EIT 的效果是通过频率失谐的成对 SRR 之间的共振杂化实现的。微带腔用于增强类 EIT 传输特性,包括 Q 因子和群延迟。焊接在 SRR 间隙的变容二极管通过直流电压源进行电偏压。这种动态调制设置允许对增强型 EIT 模拟进行调整。实验结果表明,在 0 至 5 V 的偏置电压下,增强型 EIT 类传输频谱可相对于 2.464 GHz 的传输骤降频率可逆地调整 378 MHz。与此同时,受控传输频谱还能使群延迟发生显著变化,达到 10.9 ns。此外,复合 SRRs-Cavity 结构的调制幅度峰值高达 34.5 dB,明显高于单个 SRRs 对的 6.4 dB。这些结果有望激发实际应用中主动控制光子器件的创新。
Electromagnetic modulating action in a microstrip cavity with embedded two detuned resonators
We present a novel approach for actively controlling electromagnetically induced transparency (EIT) analogs in a single-mode microstrip cavity. This cavity is side-coupled with a pair of varactor-loaded split-ring resonators (SRRs). The EIT-like effect is achieved through resonance hybridization between the paired SRRs with frequency detuning. The microstrip cavity is utilized to enhance the EIT-like transmission properties, including Q-factor and group delay. Varactor diodes, soldered at the gap of the SRRs, are biased electrically through a DC voltage source. This dynamic modulation setup allows for the tuning of the enhanced EIT analog. Experimental results demonstrate that the enhanced EIT-like transmission spectrum can be tuned reversibly by 378 MHz with respect to the transmission dip frequency of 2.464 GHz under the bias voltage ranging from 0 to 5 V. Simultaneously, the controlled transmission spectrum enables a remarkable change in group delay of 10.9 ns. Moreover, the modulation amplitude of the composite SRRs-cavity structure reaches a peak value of up to 34.5 dB, significantly higher than the 6.4 dB of the individual SRRs pair. These results hold promise for inspiring innovation in actively controlled photonic devices for practical applications.
期刊介绍:
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