• Acta Optica Sinica
  • Vol. 39, Issue 1, 0104001 (2019)
Tingting Pan*, Wen Cao, and Ming Wang*
Author Affiliations
  • Key Laboratory on Opto-Electronic Technology of Jiangsu Province, School of Physics Science and Technology, Nanjing Normal University, Nanjing, Jiangsu 210023, China
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    DOI: 10.3788/AOS201939.0104001 Cite this Article Set citation alerts
    Tingting Pan, Wen Cao, Ming Wang. Optical Properties of Multi-Hole Periodic Silver Film Array Structure[J]. Acta Optica Sinica, 2019, 39(1): 0104001 Copy Citation Text show less
    Structural model. (a) Multi-hole periodic silver film array structure; (b) single periodic structure
    Fig. 1. Structural model. (a) Multi-hole periodic silver film array structure; (b) single periodic structure
    Transmission spectrum and electric field distribution of multi-hole periodic silver film array
    Fig. 2. Transmission spectrum and electric field distribution of multi-hole periodic silver film array
    Transmission spectra and electric field distribution of central hole and side holes
    Fig. 3. Transmission spectra and electric field distribution of central hole and side holes
    Transmission spectra of multi-hole periodic silver film array at different angles
    Fig. 4. Transmission spectra of multi-hole periodic silver film array at different angles
    Electric field distribution, Ex and Ey field distribution at the transmission peak of the proposed structure with different angles. (a)(f)(n) 42°; (b)(j)(z) 65°; (d)(k)(y) 75°; (e)(m)(w) 95°
    Fig. 5. Electric field distribution, Ex and Ey field distribution at the transmission peak of the proposed structure with different angles. (a)(f)(n) 42°; (b)(j)(z) 65°; (d)(k)(y) 75°; (e)(m)(w) 95°
    Transmission spectra of multi-hole periodic silver film array structure at different diameters of central hole
    Fig. 6. Transmission spectra of multi-hole periodic silver film array structure at different diameters of central hole
    Electric field distribution at the transmission peak of the proposed structure with different diameters of central hole. (a) 100 nm; (b) 105 nm; (c) 110 nm; (d) 115 nm; (e) 120 nm
    Fig. 7. Electric field distribution at the transmission peak of the proposed structure with different diameters of central hole. (a) 100 nm; (b) 105 nm; (c) 110 nm; (d) 115 nm; (e) 120 nm
    Transmission spectra of multi-hole periodic silver film array structure at different diameters of side holes
    Fig. 8. Transmission spectra of multi-hole periodic silver film array structure at different diameters of side holes
    Electric field distribution at the transmission peak with different diameters of side holes. (a) 50 nm; (b) 55 nm; (c) 60 nm; (d) 65 nm; (e) 70 nm
    Fig. 9. Electric field distribution at the transmission peak with different diameters of side holes. (a) 50 nm; (b) 55 nm; (c) 60 nm; (d) 65 nm; (e) 70 nm
    Transmission spectra of multi-hole periodic silver film array structure at different thickness
    Fig. 10. Transmission spectra of multi-hole periodic silver film array structure at different thickness
    Electric field distribution at the transmission peak with different thickness of the structure. (a) 50 nm; (b) 60 nm; (c) 70 nm; (d) 80 nm; (e) 90 nm
    Fig. 11. Electric field distribution at the transmission peak with different thickness of the structure. (a) 50 nm; (b) 60 nm; (c) 70 nm; (d) 80 nm; (e) 90 nm
    Transmission spectra of multi-hole periodic silver film array structure at different space between side holes and central hole
    Fig. 12. Transmission spectra of multi-hole periodic silver film array structure at different space between side holes and central hole
    Electric field distribution at the transmission peak with different space between side holes and central hole. (a) 100 nm; (b) 110 nm; (c) 120 nm; (d) 130 nm; (e) 140 nm; (f) 150 nm
    Fig. 13. Electric field distribution at the transmission peak with different space between side holes and central hole. (a) 100 nm; (b) 110 nm; (c) 120 nm; (d) 130 nm; (e) 140 nm; (f) 150 nm
    Transmission spectra of multi-hole periodic silver film array structure at different polarization angles
    Fig. 14. Transmission spectra of multi-hole periodic silver film array structure at different polarization angles
    Electric field distribution, Ex and Ey field distribution at the transmission peak with different polarization angles. (a)(e)(m) 0°; (b)(f)(n) 30°; (c)(g)(k) 60°; (d)(k)(t) 90°
    Fig. 15. Electric field distribution, Ex and Ey field distribution at the transmission peak with different polarization angles. (a)(e)(m) 0°; (b)(f)(n) 30°; (c)(g)(k) 60°; (d)(k)(t) 90°
    Transmission spectra of multi-hole periodic silver film array structure at different environmental refractive index
    Fig. 16. Transmission spectra of multi-hole periodic silver film array structure at different environmental refractive index
    Relationship between wavelength position of transmission peak and environmental refractive index
    Fig. 17. Relationship between wavelength position of transmission peak and environmental refractive index
    Tingting Pan, Wen Cao, Ming Wang. Optical Properties of Multi-Hole Periodic Silver Film Array Structure[J]. Acta Optica Sinica, 2019, 39(1): 0104001
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