• Acta Optica Sinica
  • Vol. 42, Issue 17, 1714005 (2022)
Xu Liu1、2、* and Cuifang Kuang1、2
Author Affiliations
  • 1State Key Laboratory of Modern Optical Instrumentation, Zhejiang University, Hangzhou 310027, Zhejiang,China
  • 2Zhejiang Laboratory, Hangzhou 311121, Zhejiang, China
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    DOI: 10.3788/AOS202242.1714005 Cite this Article Set citation alerts
    Xu Liu, Cuifang Kuang. High Throughput Laser Nano Direct Writing Technique[J]. Acta Optica Sinica, 2022, 42(17): 1714005 Copy Citation Text show less
    LDW with two laser beams[15-21]
    Fig. 1. LDW with two laser beams[15-21]
    Multi-channels LDW technique[24-27]
    Fig. 2. Multi-channels LDW technique[24-27]
    Principle of TP-LDW, PPI-LDW, and multi-channel PPI-LDW[30]
    Fig. 3. Principle of TP-LDW, PPI-LDW, and multi-channel PPI-LDW[30]
    Jablonski plot of PPI photoresist (Rim-P) and two writing mode (oil mode & dip-in mode)
    Fig. 4. Jablonski plot of PPI photoresist (Rim-P) and two writing mode (oil mode & dip-in mode)
    3D hollow spot. (a) Schematic of 3D hollow spot modulated with SLM; (b) modulation module of 3D hollow spot; (c) intensity distribution of 3D hollow spot in front focal plane of objective lens; (d) linewidth corresponding to inhibition laser off or on
    Fig. 5. 3D hollow spot. (a) Schematic of 3D hollow spot modulated with SLM; (b) modulation module of 3D hollow spot; (c) intensity distribution of 3D hollow spot in front focal plane of objective lens; (d) linewidth corresponding to inhibition laser off or on
    Beam stabilization. (a) Schematic of beam stabilization module; (b) position and (c) angle drift of beam without drift control;(d) position and (e) angle drift of beam with drift control
    Fig. 6. Beam stabilization. (a) Schematic of beam stabilization module; (b) position and (c) angle drift of beam without drift control;(d) position and (e) angle drift of beam with drift control
    Six channels LDW. (a) Schematic of six channels LDW system; (b) CAD module corresponding to Fig. 7(a), the inset is photo of real product; (c) six channels excitation and inhibition beams generated by SLM
    Fig. 7. Six channels LDW. (a) Schematic of six channels LDW system; (b) CAD module corresponding to Fig. 7(a), the inset is photo of real product; (c) six channels excitation and inhibition beams generated by SLM
    Different micro/nano-structure devices written by PPI-LDW
    Fig. 8. Different micro/nano-structure devices written by PPI-LDW
    SampleResin composite*nε390 /(104 L·mol-1·cm-1IFlo532 /(104 arb.units)τsam /nsPth /mW
    Rim-P1

    38.7% PETA

    61.3% BPADA

    1.5181.613.7404.723.71
    Rim-P2

    69.5% PETA

    30.5% BPFDA

    1.5181.680.2623.972.23
    Rim-P3

    86.0% TCDA

    14.0% BPFDA

    1.5182.610.5213.303.00
    Rim-P0100.0% PETA1.4842.330.3194.332.30
    Table 1. Chemical components and photophysical performance for Rim-P series photoresist
    Xu Liu, Cuifang Kuang. High Throughput Laser Nano Direct Writing Technique[J]. Acta Optica Sinica, 2022, 42(17): 1714005
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