Phase Topology Stability of an Optical Vortex via an Electrically Controlled Twist‐Planar Oriented Liquid Crystal Fresnel Lens (Advanced Optical Materials 5/2026)

Key Points

The device enables dynamic control of optical vortex phase topology, showcasing its practical applications in photonics.
Real-time detection of topological charge achieved through voltage-tuned birefringence enhances optical performance.
Observational analysis of liquid crystal Fresnel lens shows significant implications for vortex-based technologies.
The findings highlight promising future applications in low-power, reconfigurable optical communication systems.

Abstract

Reconfigurable Photonics This work demonstrates an electrically switchable liquid crystal Fresnel lens enabling dynamic control of optical vortex phase topology. The device allows real-time detection of topological charge and vortex stability through voltage-tuned birefringence, offering a compact, low-power platform for reconfigurable singular-beam photonics and next-generation vortex-based optical communication technologies. More details can be found in the Research Article by Alina Karabchevsky and co-workers (DOI: 10.1002/adom.202502277).

Phase Topology Stability of an Optical Vortex via an Electrically Controlled Twist‐Planar Oriented Liquid Crystal Fresnel Lens (Advanced Optical Materials 5/2026)

Key Points

Abstract

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