• Acta Optica Sinica
  • Vol. 39, Issue 5, 0519001 (2019)
Hui Han1、2, Yuanmin Yan1、2, and Qian Shou1、2、*
Author Affiliations
  • 1 Guangdong Key Laboratory of Micro-Nano Photonic Functional Materials and Devices, South China Normal University, Guangzhou, Guangdong 510006, China
  • 2 School of Information Optoelectronics Science and Technology, South China Normal University, Guangzhou, Guangdong 510006, China
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    DOI: 10.3788/AOS201939.0519001 Cite this Article Set citation alerts
    Hui Han, Yuanmin Yan, Qian Shou. Perturbation Method for Solving Vortex Spatial Optical Solitons in Lead Glass[J]. Acta Optica Sinica, 2019, 39(5): 0519001 Copy Citation Text show less
    Fitting diagram of true refractive index and polynomial approximate refractive index in intensity range of vortex soliton solutions with l=1
    Fig. 1. Fitting diagram of true refractive index and polynomial approximate refractive index in intensity range of vortex soliton solutions with l=1
    Comparison of transmission results between ground state solutions and second-order perturbation solutions with l=1. (a) Transmission diagram of ground state solutions; (b) statistical beam width of ground state solutions; (c) maximum intensity diagram of ground state solutions; (d) transmission diagram of second-order perturbation solutions; (e) statistical beam width of second-order perturbation solutions; (f) maximum intensity diagram of second-order perturbation solutions
    Fig. 2. Comparison of transmission results between ground state solutions and second-order perturbation solutions with l=1. (a) Transmission diagram of ground state solutions; (b) statistical beam width of ground state solutions; (c) maximum intensity diagram of ground state solutions; (d) transmission diagram of second-order perturbation solutions; (e) statistical beam width of second-order perturbation solutions; (f) maximum intensity diagram of second-order perturbation solutions
    Comparison of transmission results between ground state solutions and second-order perturbation solutions with l=2. (a) Transmission diagram of ground state solutions; (b) statistical beam width of ground state solutions; (c) maximum intensity diagram of ground state solutions; (d) transmission diagram of second-order perturbation solutions; (e) statistical beam width of second-order perturbation solutions; (f) maximum intensity diagram of second-order perturbation solutions
    Fig. 3. Comparison of transmission results between ground state solutions and second-order perturbation solutions with l=2. (a) Transmission diagram of ground state solutions; (b) statistical beam width of ground state solutions; (c) maximum intensity diagram of ground state solutions; (d) transmission diagram of second-order perturbation solutions; (e) statistical beam width of second-order perturbation solutions; (f) maximum intensity diagram of second-order perturbation solutions
    Comparison of transmission results between ground state solutions and second-order perturbation solutions with l=3. (a) Transmission diagram of ground state solutions; (b) statistical beam width of ground state solutions; (c) maximum intensity diagram of ground state solutions; (d) transmission diagram of second-order perturbation solutions; (e) statistical beam width of second-order perturbation solutions; (f) maximum intensity diagram of second-order perturbation solutions
    Fig. 4. Comparison of transmission results between ground state solutions and second-order perturbation solutions with l=3. (a) Transmission diagram of ground state solutions; (b) statistical beam width of ground state solutions; (c) maximum intensity diagram of ground state solutions; (d) transmission diagram of second-order perturbation solutions; (e) statistical beam width of second-order perturbation solutions; (f) maximum intensity diagram of second-order perturbation solutions
    Comparison of transmission results between ground state solutions and second-order perturbation solutions with l=4. (a) Transmission diagram of ground state solutions; (b) statistical beam width of ground state solutions; (c) maximum intensity diagram of ground state solutions; (d) transmission diagram of second-order perturbation solutions; (e) statistical beam width of second-order perturbation solutions; (f) maximum intensity diagram of second-order perturbation solutions
    Fig. 5. Comparison of transmission results between ground state solutions and second-order perturbation solutions with l=4. (a) Transmission diagram of ground state solutions; (b) statistical beam width of ground state solutions; (c) maximum intensity diagram of ground state solutions; (d) transmission diagram of second-order perturbation solutions; (e) statistical beam width of second-order perturbation solutions; (f) maximum intensity diagram of second-order perturbation solutions
    Hui Han, Yuanmin Yan, Qian Shou. Perturbation Method for Solving Vortex Spatial Optical Solitons in Lead Glass[J]. Acta Optica Sinica, 2019, 39(5): 0519001
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