Development of emergent ferroelectric nematic liquid crystals with highly fluorinated and rigid mesogens
Yaohao Song, Jinxing Li, Runli Xia, Hao Xu, Xinxin Zhang, Huanyu Lei, Weifeng Peng, Shuqi Dai, Satoshi Aya, Mingjun Huang
Abstract
Yaohao Song, Jinxing Li, Runli Xia, Hao Xu, Xinxin Zhang, Huanyu Lei, Weifeng Peng, Shuqi Dai, Satoshi Aya, Mingjun Huang
Abstract
families as representatives, in sharp contrast to the enormously diverse variety of the traditional apolar nematic liquid crystals. Here, we report a design of novel ferroelectric nematic materials with highly fluorinated and rigid mesogens. Noteworthily, they show distinct chemical structural features compared with previous aromatic ester-based molecules. The ferroelectric nematic phase was identified and confirmed through rigorous experiments. The bulk polarization was found to become purely along the long axis director, creating giant dielectric anisotropy. This work demonstrates a great potential for expanding ferroelectric nematic material diversity and will accelerate the corresponding application research and technology innovation.
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families as representatives, in sharp contrast to the enormously diverse variety of the traditional apolar nematic liquid crystals. Here, we report a design of novel ferroelectric nematic materials with highly fluorinated and rigid mesogens. Noteworthily, they show distinct chemical structural features compared with previous aromatic ester-based molecules. The ferroelectric nematic phase was identified and confirmed through rigorous experiments. The bulk polarization was found to become purely along the long axis director, creating giant dielectric anisotropy. This work demonstrates a great potential for expanding ferroelectric nematic material diversity and will accelerate the corresponding application research and technology innovation.
Key concepts: Liquid crystal, Ferroelectricity, Materials science, Dielectric, Biaxial nematic, Polarization (electrochemistry), Anisotropy, Phase (matter)