[1] BONSE J. Quo Vadis LIPSS?—recent and future trends on laser-induced periodic surface structures[J]. Nanomaterials, 10, 1950(2020).

[2] VOROBYEV A Y, GUO C L. Femtosecond laser-induced periodic surface structure formation on tungsten[J]. Journal of Applied Physics, 104, 063523(2008).

[3] GOLOSOV E V, IONIN A A, KOLOBOV Y R et al. Ultrafast changes in the optical properties of a titanium surface and femtosecond laser writing of one-dimensional quasi-periodic nanogratings of its relief[J]. Journal of Experimental and Theoretical Physics, 113, 14-26(2011).

[8] YAO J W, ZHANG C Y, LIU H Y et al. Selective appearance of several laser-induced periodic surface structure patterns on a metal surface using structural colors produced by femtosecond laser pulses[J]. Applied Surface Science, 258, 7625-7632(2012).

[9] BLOSSEY R. Self-cleaning surfaces — virtual realities[J]. Nature Materials, 2, 301-306(2003).

[10] SKOULAS E, MANOUSAKI A, FOTAKIS C et al. Biomimetic surface structuring using cylindrical vector femtosecond laser beams[J]. Scientific Reports, 7, 45114(2017).

[11] SHINONAGA T, TSUKAMOTO M, KAWA T et al. Formation of periodic nanostructures using a femtosecond laser to control cell spreading on titanium[J]. Applied Physics B, 119, 493-496(2015).

[12] YU J J, LU Y F. Laser-induced ripple structures on Ni–P substrates[J]. Applied Surface Science, 148, 248-252(1999).

[13] CHANG H W, TSAI Y C, CHENG C W et al. Nanostructured Ag surface fabricated by femtosecond laser for surface-enhanced Raman scattering[J]. Journal of Colloid and Interface Science, 360, 305-308(2011).

[14] GARCIA-LECHUGA M, PUERTO D, FUENTES-EDFUF Y et al. Ultrafast moving-spot microscopy: birth and growth of laser-induced periodic surface structures[J]. ACS Photonics, 3, 1961-1967(2016).

[15] ZHOU K, JIA X, JIA T Q et al. The influences of surface plasmons and thermal effects on femtosecond laser-induced subwavelength periodic ripples on Au film by pump-probe imaging[J]. Journal of Applied Physics, 121, 104301(2017).

[16] XU J, MIN C J, ZHANG Y Q et al. Imaging ultrafast evolution of subwavelength-sized topography using single-probe structured light microscopy[J]. Photonics Research, 10, 1900-1908(2022).

[17] HAN R Z, ZHANG Y C, JIANG Q L et al. Ultrafast dynamics of femtosecond laser-induced high spatial frequency periodic structures on silicon surfaces[J]. Opto-Electronic Science, 3, 230013(2024).

[19] MASTELLONE M, PACE M L, CURCIO M et al. LIPSS applied to wide bandgap semiconductors and dielectrics: assessment and future perspectives[J]. Materials, 15, 1378(2022).

[20] RAJENDRAN R, KRISHNADEV E R, ANOOP K K. Direct femtosecond laser processing for generating high spatial frequency LIPSS (HSFL) on borosilicate glasses with large-area coverage[J]. Photonics, 10, 793(2023).

[21] WANG Q J, ZHANG R, CHEN Q K et al. A review of femtosecond laser processing of silicon carbide[J]. Micromachines, 15, 639(2024).

[22] TAKEDA M, MUTOH K. Fourier transform profilometry for the automatic measurement of 3-D object shapes[J]. Applied Optics, 22, 3977-3982(1983).

[23] SU X Y, ZHANG Q C. Dynamic 3-D shape measurement method: a review[J]. Optics and Lasers in Engineering, 48, 191-204(2010).

[24] SU X Y, CHEN W J. Fourier transform profilometry: a review[J]. Optics and Lasers in Engineering, 35, 263-284(2001).

[25] NI J L, WEI Q Y, ZHANG Y Q et al. Super-resolution three-dimensional structured illumination profilometry for in situ measurement of femtosecond laser ablation morphology[J]. APL Photonics, 8, 101302(2023).

[26] SATOH D, SHIBUYA T, TERASAWA E et al. Ultrafast pump-probe microscopic imaging of femtosecond laser-induced melting and ablation in single-crystalline silicon carbide[J]. Applied Physics A, 126, 795(2020).

[27] YAN Z X, LIN Q Y, LI G J et al. A combined model for formation mechanism of ripples induced by femtosecond laser on silicon carbide[J]. Applied Physics A, 126, 915(2020).

[28] VAGHASIYA H, KRAUSE S, MICLEA P T. Thermal and non-thermal ablation mechanisms in crystalline silicon by femtosecond laser pulses: classical approach of the carrier density two temperature model[J]. Journal of Physics D: Applied Physics, 55, 175109(2022).