• Chinese Journal of Lasers
  • Vol. 50, Issue 18, 1813006 (2023)
Chen Zhu1, Zhenglong Shao1, Yingjie Zhou1, Jiaqi Ren1, Fan Fan1、*, and Dongliang Tang1、2、**
Author Affiliations
  • 1Key Laboratory for Micro/Nano Optoelectronic Devices of Ministry of Education, School of Physics & Electronics, Hunan University, Changsha 410082, Hunan, China
  • 2Greater Bay Area Institute for Innovation, Hunan University, Guangzhou 511300, Guangdong, China
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    DOI: 10.3788/CJL230716 Cite this Article Set citation alerts
    Chen Zhu, Zhenglong Shao, Yingjie Zhou, Jiaqi Ren, Fan Fan, Dongliang Tang. Advances in Multi-Dimensional Light Field Modulation Based on Liquid Crystal[J]. Chinese Journal of Lasers, 2023, 50(18): 1813006 Copy Citation Text show less
    Planar functional liquid crystal devices. (a) Fresnel liquid crystal lens[3]; (b) liquid crystal spiral phase plate[4]; (c) tunable liquid crystal grating[5]; (d) liquid crystal beam steering device[6]
    Fig. 1. Planar functional liquid crystal devices. (a) Fresnel liquid crystal lens[3]; (b) liquid crystal spiral phase plate[4]; (c) tunable liquid crystal grating[5]; (d) liquid crystal beam steering device[6]
    Schematics of liquid crystal molecule arrangement. (a) Smectic liquid crystal[26]; (b) nematic liquid crystals[26]; (c) cholesteric liquid crystal[26]; (d) blue phase liquid crystal[24]
    Fig. 2. Schematics of liquid crystal molecule arrangement. (a) Smectic liquid crystal[26]; (b) nematic liquid crystals[26]; (c) cholesteric liquid crystal[26]; (d) blue phase liquid crystal[24]
    Molecular modulation mechanism of liquid crystal. (a) Structural diagram of liquid crystal molecular; (b) amplitude modulation properties of liquid crystals; (c) geometric phase modulation properties of liquid crystals
    Fig. 3. Molecular modulation mechanism of liquid crystal. (a) Structural diagram of liquid crystal molecular; (b) amplitude modulation properties of liquid crystals; (c) geometric phase modulation properties of liquid crystals
    Various optical orientation technology systems. (a) Mask exposure system[40]; (b) interference exposure system[39]; (c) direct write exposure system[37]; (d) DMD dynamic mask exposure system[38]; (e) plasmon mask exposure system[41]; (f) SLM dynamic mask exposure system[36]
    Fig. 4. Various optical orientation technology systems. (a) Mask exposure system[40]; (b) interference exposure system[39]; (c) direct write exposure system[37]; (d) DMD dynamic mask exposure system[38]; (e) plasmon mask exposure system[41]; (f) SLM dynamic mask exposure system[36]
    Principle and applications of liquid crystal display. (a) Structural diagram of liquid crystal display; (b) applications of liquid crystal display
    Fig. 5. Principle and applications of liquid crystal display. (a) Structural diagram of liquid crystal display; (b) applications of liquid crystal display
    Principle and applications of amplitude type spatial light modulator. (a) Holoeye LC2012 amplitude type spatial light modulator and its principle[48]; (b) laser beam shaping realized by using space light modulator[49]; (c) schematic of adjustable refraction instrument for measuring refractive index based on spatial light modulator[50]
    Fig. 6. Principle and applications of amplitude type spatial light modulator. (a) Holoeye LC2012 amplitude type spatial light modulator and its principle[48]; (b) laser beam shaping realized by using space light modulator[49]; (c) schematic of adjustable refraction instrument for measuring refractive index based on spatial light modulator[50]
    Smart windows based on liquid crystal. (a) Schematic of smart window based on liquid crystal/graphene composites[60]; (b) schematic of stable and expandable smart window based on polymer material liquid crystal[61]
    Fig. 7. Smart windows based on liquid crystal. (a) Schematic of smart window based on liquid crystal/graphene composites[60]; (b) schematic of stable and expandable smart window based on polymer material liquid crystal[61]
    Principle and applications of phase type spatial light modulator. (a) Holoeye PLUTO-2 phase type spatial light modulator and its principle; (b) scalable all-optical neural network based on spatial optical modulator[64]; (c) encryption system based on phase type spatial light modulator[65]
    Fig. 8. Principle and applications of phase type spatial light modulator. (a) Holoeye PLUTO-2 phase type spatial light modulator and its principle; (b) scalable all-optical neural network based on spatial optical modulator[64]; (c) encryption system based on phase type spatial light modulator[65]
    Dynamic encryption systems based on spatial light modulator. (a) Holographic encryption of orbital angular momentum based on space light modulator[66]; (b) spatial nonlinear optical image encryption based on spatial light modulator[67]
    Fig. 9. Dynamic encryption systems based on spatial light modulator. (a) Holographic encryption of orbital angular momentum based on space light modulator[66]; (b) spatial nonlinear optical image encryption based on spatial light modulator[67]
    Geometric phase liquid crystal devices. (a) Dual-frequency liquid crystal polarization grating based on geometric phase[68]; (b) polarization switching liquid crystal lens based on geometric phase[69]; (c) liquid crystal bifocal lens based on geometric phase[70]; (d) cholesteric liquid crystals under different phase distributions[71]; (e) self-assembling spiral superstructure with optically controlled chiral inversion[72]
    Fig. 10. Geometric phase liquid crystal devices. (a) Dual-frequency liquid crystal polarization grating based on geometric phase[68]; (b) polarization switching liquid crystal lens based on geometric phase[69]; (c) liquid crystal bifocal lens based on geometric phase[70]; (d) cholesteric liquid crystals under different phase distributions[71]; (e) self-assembling spiral superstructure with optically controlled chiral inversion[72]
    Dynamic encryption systems based on liquid crystal. (a) Schematic of encryption system for transmission of tunable circularly polarized luminescent signals based on dye-doped chiral liquid crystals[73]; (b) schematic of high security liquid crystal holographic encryption system inspired by Tiger Amulet[74]
    Fig. 11. Dynamic encryption systems based on liquid crystal. (a) Schematic of encryption system for transmission of tunable circularly polarized luminescent signals based on dye-doped chiral liquid crystals[73]; (b) schematic of high security liquid crystal holographic encryption system inspired by Tiger Amulet[74]
    Multifunctional liquid crystal devices based on geometric phase. (a) Multifunctional liquid crystal device for simultaneous display of near-field and far-field images[75]; (b) liquid crystal device with polarization, wavelength, and position multiplexing[76]
    Fig. 12. Multifunctional liquid crystal devices based on geometric phase. (a) Multifunctional liquid crystal device for simultaneous display of near-field and far-field images[75]; (b) liquid crystal device with polarization, wavelength, and position multiplexing[76]
    Multifunctional liquid crystal device with surface display and far-field holographic display[79]. (a) Complex amplitude modulation of liquid crystal molecules in orthogonal polarized light paths; (b) schematic of device design principle; (c) experimental test results
    Fig. 13. Multifunctional liquid crystal device with surface display and far-field holographic display[79]. (a) Complex amplitude modulation of liquid crystal molecules in orthogonal polarized light paths; (b) schematic of device design principle; (c) experimental test results
    Multifunctional liquid crystal device with multi-channel surface image display and far-field holographic display[80]. (a) Relationship between normalized strength of liquid crystal molecules and orientation angle θ before and after rotation; (b) four orientation angles of liquid crystal molecules and their corresponding binary intensity codes; (c) experimental test result
    Fig. 14. Multifunctional liquid crystal device with multi-channel surface image display and far-field holographic display[80]. (a) Relationship between normalized strength of liquid crystal molecules and orientation angle θ before and after rotation; (b) four orientation angles of liquid crystal molecules and their corresponding binary intensity codes; (c) experimental test result
    Modulator components with integrated liquid crystal and metasurface. (a) Schematic of optical encryption system with integrated polymer dispersed liquid crystal and metasurface[90]; (b) schematic of device with integrated nematic liquid crystal and metasurface[91]
    Fig. 15. Modulator components with integrated liquid crystal and metasurface. (a) Schematic of optical encryption system with integrated polymer dispersed liquid crystal and metasurface[90]; (b) schematic of device with integrated nematic liquid crystal and metasurface[91]
    Liquid crystal-metasurface dynamic control devices. (a) Schematic of electrically tunable multifunctional polarimetric dependent metasurface with integrated liquid crystal[92]; (b) schematic of electrically tunable liquid crystal loaded metasurface[93]
    Fig. 16. Liquid crystal-metasurface dynamic control devices. (a) Schematic of electrically tunable multifunctional polarimetric dependent metasurface with integrated liquid crystal[92]; (b) schematic of electrically tunable liquid crystal loaded metasurface[93]
    Tunable liquid crystal micro laser devices. (a) Wide-band and dual outgoing liquid crystal laser[97]; (b) blue phase liquid crystal laser with wide temperature domain[98]
    Fig. 17. Tunable liquid crystal micro laser devices. (a) Wide-band and dual outgoing liquid crystal laser[97]; (b) blue phase liquid crystal laser with wide temperature domain[98]
    Nonlinear light field control based on liquid crystal. (a) Study on nonlinear properties of ferroelectric nematic liquid crystals[112]; (b) nonlinear property system based on spiral ferroelectric nematic liquid crystals[113]
    Fig. 18. Nonlinear light field control based on liquid crystal. (a) Study on nonlinear properties of ferroelectric nematic liquid crystals[112]; (b) nonlinear property system based on spiral ferroelectric nematic liquid crystals[113]
    Control of angular momentum of light field based on liquid crystal devices. (a) Three-dimensional array of orbital angular momentum beams based on geometric phase of liquid crystal[114]; (b) four-dimensional optical tunable liquid crystal device[115]
    Fig. 19. Control of angular momentum of light field based on liquid crystal devices. (a) Three-dimensional array of orbital angular momentum beams based on geometric phase of liquid crystal[114]; (b) four-dimensional optical tunable liquid crystal device[115]
    Chen Zhu, Zhenglong Shao, Yingjie Zhou, Jiaqi Ren, Fan Fan, Dongliang Tang. Advances in Multi-Dimensional Light Field Modulation Based on Liquid Crystal[J]. Chinese Journal of Lasers, 2023, 50(18): 1813006
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