The transmittance spectrum of n-GaAs based one dimensional extrinsic magnetized Dodecanacci multilayered photonic structure is investigated. The two-layered system as the magnetic and non-magnetic field is applied spatially to a bulk semiconductor material of the quasiperiodic structure. The dielectric function is based on the Drude model, and the transmission coefficients are calculated using the transfer matrix method. The results reveal the right shifting of forbidden gaps towards the higher frequency region for the proposed Dodecanacci sequence. Besides, by applying an external magnetic field the broader bandgaps appear above the plasma frequency for different generation numbers of the Dodecanacci sequence. The robustness in the bandgaps with a change in the layer thickness and width of the photonic bandgap increases monotonically. Also, the electron density results convey the control of the width and the maximum transmission of electromagnetic waves for all types of Dodecanacci structures. The features mentioned above are useful for future optoelectronic applications like the designing of tunable optical filters.

n-GaAs的透射光谱基于一维外部磁化的十二磁化多层光子结构的研究。作为磁场和非磁场的两层系统在空间上施加到准周期结构的体半导体材料上。介电函数基于Drude模型，并且使用传输矩阵方法计算传输系数。结果表明，对于拟议的多德卡纳奇序列，禁止间隙向较高频率区域的右移。此外，通过施加外部磁场，对于多德卡纳奇序列的不同代数，在等离子频率之上会出现更宽的带隙。带隙的鲁棒性随光子带隙的层厚度和宽度的变化而单调增加。也，电子密度结果传达了对所有类型Dodecanacci结构的电磁波宽度和最大传输的控制。上面提到的功能对于将来的光电应用（如可调谐光学滤波器的设计）很有用。