在双水电极大气压氩气介质阻挡放电中获得了一维可调等离子体光子晶体.通过类似于量子力学Kronig-Penney模型求解周期势的方法,求解Maxwell方程得到了一维等离子光子晶体的色散关系.结合实验数据,理论模拟了晶格常数、等离子体与介质的厚度比、电子密度等不同参数对等离子体光子晶体带隙的影响.结果表明:等离子体光子晶体晶格常数的增大导致能级位置降低,相速度减小；在相同的晶格常数下,等离子体填充比增大时,带隙位置将略有上升且光子带隙数目增加；当电子密度大于1020 m-3时,等离子体光子晶体具有显著禁带宽度.
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