4.7 Article

Hydrazone organics with third-order nonlinear optical effect for femtosecond pulse generation and control in the L-band

Journal

OPTICS AND LASER TECHNOLOGY
Volume 151, Issue -, Pages -

Publisher

ELSEVIER SCI LTD
DOI: 10.1016/j.optlastec.2022.108016

Keywords

Ultrafast photonics; Dissipative soliton; Pulse modulation; Hydrazone organics

Funding

  1. projects for the Academic Leader and Academic Backbones, Shaanxi Normal University [18QNGG006]
  2. International Science & Technology Cooperation and Exchanges Project of Shaanxi [2020KW-005]
  3. Starting Grants of Shaanxi Normal University [1112010209, 1110010717]
  4. Fundamental Research Funds For the Central Universities [2020CSLZ002, GK202103013]
  5. Opening Foundation of Shandong Provincial Key Lab-oratory of Laser Technology and Application

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This study focuses on dissipative soliton pulses generated by a nonlinear photonics absorption device based on hydrazone organics, compressing the pulses to near the transformation limit through dispersion control. Experimental results demonstrate that the transport properties of dissipative solitons are different from traditional optical pulses, and additional anomalous dispersion fibers can produce dissipative noise-like soliton pulses.
Dissipative solitons are generalized solitons with much larger pulse energy and width than conventional solitons, and the pulse characteristics will be changed dramatically during transmission. Nonlinear photonic absorption device in nonlinear optical resonator can provide saturable absorption effect to generate ultrashort pulses. However, most of the nonlinear photonics devices are based on inorganic materials such as two-dimensional materials with complex production process, and there are relatively few such researches on organics. In this paper, nonlinear photonics absorption device based on hydrazone organics with high molecular polarizability and significant third-order optical nonlinearity generate ultrashort pulses. The dissipative soliton pulses are obtained by controlling the dispersion, and the pulses are compressed to the near-transformation limit of 408 fs with a compression ratio of 44.6. More importantly, the extra-cavity transport properties of dissipative solitons are discussed. Dissipative noise-like soliton pulses are discovered after additional anomalous dispersion fiber, further demonstrating that the physical laws and optical properties of dissipative solitons are completely different from those of traditional optical pulses. We expect that these experimental advances can provide some experimental basis and support for the propagation of dissipative solitons.

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