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Two-dimensional(2D) materials have emerged as attractive mediums for fabricating versatile optoelectronic devices. Recently, few-layer molybdenum disulfide(MoS_2), as a shining 2D material, has been discovered to possess both the saturable absorption effect and large nonlinear refractive index. Herein, taking advantage of the unique nonlinear optical properties of MoS_2, we fabricated a highly nonlinear saturable absorption photonic device by depositing the few-layer MoS_2 onto the microfiber. With the proposed MoS_2 photonic device, apart from the conventional soliton patterns, the mode-locked pulses could be shaped into some new soliton patterns, namely,multiple soliton molecules, localized chaotic multipulses, and double-scale soliton clusters. Our findings indicate that the few-layer MoS_2-deposited microfiber could operate as a promising highlynonlinear photonic device for the related nonlinear optics applications.
Two-dimensional (2D) materials have emerged as attractive mediums for fabricating versatile optoelectronic devices. Recently, few-layer molybdenum disulfide (MoS_2), as a shining 2D material, has been discovered to have both the saturable absorption effect and large nonlinear refractive index Herein, taking advantage of the unique nonlinear optical properties of MoS_2, we fabricated a highly nonlinear saturable absorption photonic device by depositing the few-layer MoS_2 onto the microfiber. With the proposed MoS_2 photonic device, apart from the conventional soliton patterns, the mode -locked pulses could be shaped into some new soliton patterns, namely, multiple soliton molecules, localized chaotic multipulses, and double-scale soliton clusters. Our findings that a few-layer MoS_2-deposited microfiber could operate as a promising highly non-linear photonic device for the related nonlinear optics applications.