AI Article Synopsis

  • The study focuses on the temperature-dependent infrared spectroscopy of a novel antiferroelectric liquid crystal, MHPSBO10, examining its behavior under different sample geometries.
  • It tracks changes in order parameters and vibrational spectra across various phase transitions to understand how the material behaves in different temperature conditions.
  • The findings are complemented by theoretical analyses of MHPSBO10 in confined geometries, offering a comprehensive view of its properties.

Article Abstract

The temperature-dependent infrared spectroscopy studies of one novel antiferroelectric liquid crystal (AFLC), known under the MHPSBO10 acronym, have been undertaken. The FT-IR measurements have been performed for homeotropic and planar heterogeneous sample geometries. The main order parameters have been determined and followed with temperature. The presented study delivers complex insight into the evolution of the vibrational spectrum upon phase transitions, covering the whole mesophase range. The experimental studies have been supported by theoretical studies of MHPSBO10 in confined geometries.

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Source
http://dx.doi.org/10.1021/jp305099vDOI Listing

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