Drop-on-demand printed negative dielectric anisotropy liquid crystal droplets for adaptive complex beam manipulation and assessment

Fuente: arXiv
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Autores principales: Guo, Jinge, Qiu, Xuke, Zhang, Runchen, Han, Qihao, Deng, Liangyu, Lu, Yishun, Zhao, Zimo, Li, Mengmeng, Kama, Waqas, Ma, Junseok, Ma, Yongge, Elston, Steve J, Castrejón-Pita, Alfonso A., Morris, Stephen M, He, Chao
Formato: Preprint
Publicado: 2026
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author Guo, Jinge
Qiu, Xuke
Zhang, Runchen
Han, Qihao
Deng, Liangyu
Lu, Yishun
Zhao, Zimo
Li, Mengmeng
Kama, Waqas
Ma, Junseok
Ma, Yongge
Elston, Steve J
Castrejón-Pita, Alfonso A.
Morris, Stephen M
He, Chao
author_facet Guo, Jinge
Qiu, Xuke
Zhang, Runchen
Han, Qihao
Deng, Liangyu
Lu, Yishun
Zhao, Zimo
Li, Mengmeng
Kama, Waqas
Ma, Junseok
Ma, Yongge
Elston, Steve J
Castrejón-Pita, Alfonso A.
Morris, Stephen M
He, Chao
contents Adaptive manipulation of vectorial optical fields are important for optical metrology, imaging, and structured light related applications, yet existing approaches often rely on bulky or sequentially operated systems. Here we demonstrate an inkjet-printed negative dielectric anisotropy nematic liquid crystal droplet platform that unifies adaptive complex beam generation and full vectorial optical field sensing within a single printed architecture. For complex beam generation, voltage-driven director reconfiguration in the droplets produces tunable birefringence and wavelength-dependent polarization textures, including skyrmionic like optical fields. For adaptive full vectorial optical field sensing, the same droplet array enables spectral and polarization retrieval through wavelength-dependent intensity patterns and division-of-wavefront polarimetry, while also functioning as a microlens array for Shack Hartmann wavefront sensing to reconstruct phase. These results establish negative dielectric anisotropy liquid crystal droplets as a scalable soft-matter photonic system for adaptive beam manipulation and multidimensional optical field characterization.
format Preprint
id arxiv_https___arxiv_org_abs_2605_03834
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle Drop-on-demand printed negative dielectric anisotropy liquid crystal droplets for adaptive complex beam manipulation and assessment
Guo, Jinge
Qiu, Xuke
Zhang, Runchen
Han, Qihao
Deng, Liangyu
Lu, Yishun
Zhao, Zimo
Li, Mengmeng
Kama, Waqas
Ma, Junseok
Ma, Yongge
Elston, Steve J
Castrejón-Pita, Alfonso A.
Morris, Stephen M
He, Chao
Optics
Adaptive manipulation of vectorial optical fields are important for optical metrology, imaging, and structured light related applications, yet existing approaches often rely on bulky or sequentially operated systems. Here we demonstrate an inkjet-printed negative dielectric anisotropy nematic liquid crystal droplet platform that unifies adaptive complex beam generation and full vectorial optical field sensing within a single printed architecture. For complex beam generation, voltage-driven director reconfiguration in the droplets produces tunable birefringence and wavelength-dependent polarization textures, including skyrmionic like optical fields. For adaptive full vectorial optical field sensing, the same droplet array enables spectral and polarization retrieval through wavelength-dependent intensity patterns and division-of-wavefront polarimetry, while also functioning as a microlens array for Shack Hartmann wavefront sensing to reconstruct phase. These results establish negative dielectric anisotropy liquid crystal droplets as a scalable soft-matter photonic system for adaptive beam manipulation and multidimensional optical field characterization.
title Drop-on-demand printed negative dielectric anisotropy liquid crystal droplets for adaptive complex beam manipulation and assessment
topic Optics
url https://arxiv.org/abs/2605.03834