• Laser & Optoelectronics Progress
  • Vol. 57, Issue 11, 111404 (2020)
Bo Zhao1、2, Xin Zheng1, Tingting Zou1, Hongbo Xie1, Wei Xin1, Jianjun Yang1、*, and Chunlei Guo1
Author Affiliations
  • 1State Key Laboratory of Applied Optics, Changchun Institute of Optics, Fine Mechanics and Physics, Chinese Academy of Sciences, Changchun, Jilin, 130033, China
  • 2Department of Electronic Information and Physics, Changzhi University, Changzhi, Shanxi, 0 46011, China
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    DOI: 10.3788/LOP57.111404 Cite this Article Set citation alerts
    Bo Zhao, Xin Zheng, Tingting Zou, Hongbo Xie, Wei Xin, Jianjun Yang, Chunlei Guo. Control of Subwavelength Periodic Surface Structure Formation with Femtosecond Laser Pulses[J]. Laser & Optoelectronics Progress, 2020, 57(11): 111404 Copy Citation Text show less
    High-regular one-dimensional periodic ripple structures obtained on several metal surfaces using linearly polarized single-beam femtosecond laser incidence. (a) 1 μm chromium film[89]; (b) 50 nm titanium film[90]; (c) 300 nm molybdenum film[91]
    Fig. 1. High-regular one-dimensional periodic ripple structures obtained on several metal surfaces using linearly polarized single-beam femtosecond laser incidence. (a) 1 μm chromium film[89]; (b) 50 nm titanium film[90]; (c) 300 nm molybdenum film[91]
    Highly regular one-dimensional periodic ripple structures on 25 nm Cr film by linearly polarized single-beam femtosecond laser beam under vacuum condition of 1.0×10-4 Pa[92]. (a) Focusing with a convex lens; (b) focusing with a cylindrical lens
    Fig. 2. Highly regular one-dimensional periodic ripple structures on 25 nm Cr film by linearly polarized single-beam femtosecond laser beam under vacuum condition of 1.0×10-4 Pa[92]. (a) Focusing with a convex lens; (b) focusing with a cylindrical lens
    Large-area high-regular one-dimensional periodic ripple structures formed on tungsten surface using temporally delayed double femtosecond laser beams with orthogonal polarizations. (a) Structural morphology; (b) calcualted dispersion δθ in the structure orientation angle
    Fig. 3. Large-area high-regular one-dimensional periodic ripple structures formed on tungsten surface using temporally delayed double femtosecond laser beams with orthogonal polarizations. (a) Structural morphology; (b) calcualted dispersion δθ in the structure orientation angle
    One-dimensional subwavelength periodic ripple structures formed on Molybdenum surface using temporally delayed double femtosecond laser beams with different wavelengths[93]. (a)(b) Structural morphology at the time delay of Dt=10 ps andDt=100 ps, respectively; (c) variation of the structure period as function of the time delay between double laser beams
    Fig. 4. One-dimensional subwavelength periodic ripple structures formed on Molybdenum surface using temporally delayed double femtosecond laser beams with different wavelengths[93]. (a)(b) Structural morphology at the time delay of Dt=10 ps andDt=100 ps, respectively; (c) variation of the structure period as function of the time delay between double laser beams
    Temporal evolution of the subwavelength periodic ripple structures formed on copper surface using temporally delayed double femtosecond laser beams with the polarization intersection angle of θ=45°[95]. (a) Structural morphology at zero time delay incidence; (b) measured time-delay dependent slantwise orientation angle of the structures
    Fig. 5. Temporal evolution of the subwavelength periodic ripple structures formed on copper surface using temporally delayed double femtosecond laser beams with the polarization intersection angle of θ=45°[95]. (a) Structural morphology at zero time delay incidence; (b) measured time-delay dependent slantwise orientation angle of the structures
    Temporal evolution of the subwavelength periodic ripple structures formed on 4H-SiC surface using temporally delayed double femtosecond laser beams with the polarization intersection angle of θ=30°[96-97]. (a) Structural morphology at zero time delay incidence; (b) measured time-delay dependent slantwise orientation angle of the structures
    Fig. 6. Temporal evolution of the subwavelength periodic ripple structures formed on 4H-SiC surface using temporally delayed double femtosecond laser beams with the polarization intersection angle of θ=30°[96-97]. (a) Structural morphology at zero time delay incidence; (b) measured time-delay dependent slantwise orientation angle of the structures
    Temporal evolution of the subwavelength periodic ripple structures formed on 4H-SiC surface using temporally delayed three femtosecond laser beams with the polarization intersection angles of θ1=θ2=30°[98]. (a) Structural morphology at Δt1=10 ps and Δt2=42 ps; (b)(c) measured time-delay dependent slantwise orientation angle of the structures at Δt1=10 ps and
    Fig. 7. Temporal evolution of the subwavelength periodic ripple structures formed on 4H-SiC surface using temporally delayed three femtosecond laser beams with the polarization intersection angles of θ1=θ2=30°[98]. (a) Structural morphology at Δt1=10 ps and Δt2=42 ps; (b)(c) measured time-delay dependent slantwise orientation angle of the structures at Δt1=10 ps and
    Various types of two-dimensional periodic structure arrays on tungsten surface using temporally delayed double femtosecond laser beams with orthogonal polarizations. (a) Spherical cap[100]; (b) triangular[101]; (c) rhombus[99]
    Fig. 8. Various types of two-dimensional periodic structure arrays on tungsten surface using temporally delayed double femtosecond laser beams with orthogonal polarizations. (a) Spherical cap[100]; (b) triangular[101]; (c) rhombus[99]
    Two-dimensional elliptical-shaped periodic structure arrays formed on molybdenum surface using temporally delayed two-color femtosecond laser beams with orthogonal polarizations[102]. (a) Surface morphology; (b)(c) measured time-delay dependent structure period in the vertical and horizontal directions, respectively
    Fig. 9. Two-dimensional elliptical-shaped periodic structure arrays formed on molybdenum surface using temporally delayed two-color femtosecond laser beams with orthogonal polarizations[102]. (a) Surface morphology; (b)(c) measured time-delay dependent structure period in the vertical and horizontal directions, respectively
    Two-dimensional subwavelength ripple-particle hybrid structures formed on the copper surfaces using different femtosecond lasers[103</ma
    Fig. 10. Two-dimensional subwavelength ripple-particle hybrid structures formed on the copper surfaces using different femtosecond lasers[103
    Bo Zhao, Xin Zheng, Tingting Zou, Hongbo Xie, Wei Xin, Jianjun Yang, Chunlei Guo. Control of Subwavelength Periodic Surface Structure Formation with Femtosecond Laser Pulses[J]. Laser & Optoelectronics Progress, 2020, 57(11): 111404
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