Distinct Tunable In‐Plane Birefringence via Domain Manipulation in a 2D Metal Halide Ferroelectric

ABSTRACT Single crystals with tunable birefringence hold an exciting position in optical and photonic devices due to their exceptional ability of light manipulation. Although ferroelectric domains have been utilized to regulate physical properties, studies on tuning their birefringence by virtue of domain structure remain largely scarce. Herein, we have demonstrated the modulation of in‐plane birefringence through manipulating domain structures in a 2D metal halide ferroelectric, (2‐MBA) 2 PbCl 4 ( 1 , 2‐MBA = 2‐methylbutylamine), which exhibits a phase transition at 314 K with spontaneous polarization of 1.6 µC/cm 2 . Crystal 1 exhibits controllable birefringence that can be modified by thermal and optical stimuli; this behavior directly involves with its ferroelectric properties. Notably, we have achieved unusual in‐plane birefringence tuning via domain structure, which is further modulated by coupling domain manipulation with heat, light, and mechanical pressure. This work provides a new strategy for controlling birefringence, and advances the development of ferroelectric‐based photonic devices for data storage and integrated optoelectronics.

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Publication Details

Journal
Angewandte Chemie
Published
2026-01-30
DOI
https://doi.org/10.1002/ange.1510753
Primary Topic
Perovskite Materials and Applications
Type
article
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article

Distinct Tunable In‐Plane Birefringence via Domain Manipulation in a 2D Metal Halide Ferroelectric

Y. M., qingshun fan, Rui Xiao, Yi Liu et al.
Angewandte Chemie
Perovskite Materials and Applications
article

Distinct Tunable In‐Plane Birefringence via Domain Manipulation in a 2D Metal Halide Ferroelectric

Y. M., qingshun fan, Rui Xiao, Yi Liu, Zhihua Sun, Junhua Luo, Liwei Tang
article en

Abstract

ABSTRACT Single crystals with tunable birefringence hold an exciting position in optical and photonic devices due to their exceptional ability of light manipulation. Although ferroelectric domains have been utilized to regulate physical properties, studies on tuning their birefringence by virtue of domain structure remain largely scarce. Herein, we have demonstrated the modulation of in‐plane birefringence through manipulating domain structures in a 2D metal halide ferroelectric, (2‐MBA) 2 PbCl 4 ( 1 , 2‐MBA = 2‐methylbutylamine), which exhibits a phase transition at 314 K with spontaneous polarization of 1.6 µC/cm 2 . Crystal 1 exhibits controllable birefringence that can be modified by thermal and optical stimuli; this behavior directly involves with its ferroelectric properties. Notably, we have achieved unusual in‐plane birefringence tuning via domain structure, which is further modulated by coupling domain manipulation with heat, light, and mechanical pressure. This work provides a new strategy for controlling birefringence, and advances the development of ferroelectric‐based photonic devices for data storage and integrated optoelectronics.

Angewandte ChemieVol. 138(11)
Fujian Institute of Research on the Structure of Matter (CN), University of Chinese Academy of Sciences (CN)
Openalex Percentile: Top 72%
Perovskite Materials and Applications
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