• Acta Optica Sinica
  • Vol. 41, Issue 8, 0823015 (2021)
Jianfeng Chen1、2, Wenyao Liang1, and Zhiyuan Li1、*
Author Affiliations
  • 1School of Physics and Optoelectronics, South China University of Technology, Guangzhou, Guangdong 510641, China
  • 2Guangdong Full-Spectra Laser Technology Co., Ltd., Dongguan, Guangdong 523808, China
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    DOI: 10.3788/AOS202141.0823015 Cite this Article Set citation alerts
    Jianfeng Chen, Wenyao Liang, Zhiyuan Li. Progress of Topological Photonic State in Magneto-Optical Photonic Crystal[J]. Acta Optica Sinica, 2021, 41(8): 0823015 Copy Citation Text show less
    Topological photonic state in ordered lattice. (a) Square lattice MOPC and metal plate[15]; (b) square lattice MOPC and triangular lattice aluminum PC with bandgap[16]; (c) hexagonal lattice MOPC[17,69]; (d) triangular lattice MOPC plate[70]
    Fig. 1. Topological photonic state in ordered lattice. (a) Square lattice MOPC and metal plate[15]; (b) square lattice MOPC and triangular lattice aluminum PC with bandgap[16]; (c) hexagonal lattice MOPC[17,69]; (d) triangular lattice MOPC plate[70]
    Topological photonic state in disordered lattice. (a) MOPC with disordered position and cell size[57]; (b) single-row disordered magneto-optical column[71]; (c) MOPC with disordered superlattice[72]; (d) circular and triangular disordered MOPCs[73]; (e) crystal, glass-like, and liquid-like MOPC[74]
    Fig. 2. Topological photonic state in disordered lattice. (a) MOPC with disordered position and cell size[57]; (b) single-row disordered magneto-optical column[71]; (c) MOPC with disordered superlattice[72]; (d) circular and triangular disordered MOPCs[73]; (e) crystal, glass-like, and liquid-like MOPC[74]
    Construction of microscopic physical figure[75]. (a) Microscopic physical figures of topological current and topological photonic state; (b) infinite uniform MO medium; (c) semi-infinite air-MO medium; (d)(e) single MO column; (f) microscopic physical figure of TPS in semi-infinite air-MO medium interface; (g) TPS in hexagonal lattice MOPC; (h) TPS in square lattice MOPC
    Fig. 3. Construction of microscopic physical figure[75]. (a) Microscopic physical figures of topological current and topological photonic state; (b) infinite uniform MO medium; (c) semi-infinite air-MO medium; (d)(e) single MO column; (f) microscopic physical figure of TPS in semi-infinite air-MO medium interface; (g) TPS in hexagonal lattice MOPC; (h) TPS in square lattice MOPC
    MOPC with the breaking of time- and space-inversion symmetries. (a) Changing cell dielectric constant[76]; (b) changing cell size[27]; (c) changing rotation angle of dielectric structure[78]
    Fig. 4. MOPC with the breaking of time- and space-inversion symmetries. (a) Changing cell dielectric constant[76]; (b) changing cell size[27]; (c) changing rotation angle of dielectric structure[78]
    Antichiral topological photonic state. (a) Schematic diagram of antichiral TPS[79]; (b) projected band structure[79]; (c) eigenmodal field[79]; (d) schematic diagram of unit cell[80]; (e) verification of robustness[79]; (f) compact three-channel one-way waveguide[79]; (g)-(i) experimental demonstration[80]
    Fig. 5. Antichiral topological photonic state. (a) Schematic diagram of antichiral TPS[79]; (b) projected band structure[79]; (c) eigenmodal field[79]; (d) schematic diagram of unit cell[80]; (e) verification of robustness[79]; (f) compact three-channel one-way waveguide[79]; (g)-(i) experimental demonstration[80]
    Broadband topological photonic state and topological slow-light state. (a) Broadband TPS[81]; (b) topological slow-light state with low group velocity[51]; (c) group dispersionless slow-light state[53]; (d) broadband tunable slow-light trapping rainbow[54]; (e) broadband group dispersionless topological slow-light state[55]
    Fig. 6. Broadband topological photonic state and topological slow-light state. (a) Broadband TPS[81]; (b) topological slow-light state with low group velocity[51]; (c) group dispersionless slow-light state[53]; (d) broadband tunable slow-light trapping rainbow[54]; (e) broadband group dispersionless topological slow-light state[55]
    Topological photonic cavity. (a) One-way channel-drop filter with point cavity mode[84]; (b) one-way channel-drop filter with ring cavity[85]; (c) ring cavity array[86]; (d) dislocation topology cavity[87]
    Fig. 7. Topological photonic cavity. (a) One-way channel-drop filter with point cavity mode[84]; (b) one-way channel-drop filter with ring cavity[85]; (c) ring cavity array[86]; (d) dislocation topology cavity[87]
    Multimode topological photonic state and topological photonic circuit[6]
    Fig. 8. Multimode topological photonic state and topological photonic circuit[6]
    Topological laser[45]. (a) Schematic diagram of topological laser and unit cell; (b) experimental demonstration
    Fig. 9. Topological laser[45]. (a) Schematic diagram of topological laser and unit cell; (b) experimental demonstration
    Topological fiber[88]. (a) Regular fiber and topological fiber; (b) three-dimensional magneto-optical Weyl photonic crystal
    Fig. 10. Topological fiber[88]. (a) Regular fiber and topological fiber; (b) three-dimensional magneto-optical Weyl photonic crystal
    Jianfeng Chen, Wenyao Liang, Zhiyuan Li. Progress of Topological Photonic State in Magneto-Optical Photonic Crystal[J]. Acta Optica Sinica, 2021, 41(8): 0823015
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