JOURNAL ARTICLE

Dielectric spectroscopy of poly(butylene succinate‐co‐butylene adipate) films

Horng‐Jer Tai

Year: 2010 Journal:   Polymer Engineering and Science Vol: 51 (2)Pages: 386-390   Publisher: Wiley

Abstract

Abstract The results of dielectric studies in semicrystalline poly (butylene succinate‐ co ‐butylene adipate) (PBSA) by means of dielectric relaxation spectroscopy from 163 to 353 K and in the frequency range of 0.056–17,800 Hz are reported. The subglass β process is found to follow an Arrhenius temperature dependence, whereas the segmental α process follows a Vogel–Fulcher–Tammann temperature dependence. The higher temperature Maxwell–Wagner–Sillars (MWS) process was studied by applying the Bruggeman‐Hanai equation, which helped to understand the underlying relaxation dynamics. The MWS process originates from the charge accumulation at the interface between the low‐conductivity continuous medium and the high‐conductivity dispersed particles. A three‐phase model in which the medium comprises the crystalline and rigid amorphous phases (RAPs) and the particle comprises solely the mobile amorphous phases (MAPs) is required to explain the particle fraction variation with temperature. With increasing temperature, the MAP fraction increases at the expense of the RAP fraction within the continuous medium. POLYM. ENG. SCI., 2011. © 2010 Society of Plastics Engineers.

Keywords:
Crystallinity Materials science Adipate Dielectric Amorphous solid Arrhenius equation Conductivity Relaxation (psychology) Dielectric spectroscopy Atmospheric temperature range Particle (ecology) Polymer chemistry Chemical engineering Analytical Chemistry (journal) Thermodynamics Composite material Physical chemistry Activation energy Crystallography Electrode Organic chemistry Chemistry

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Citation History

Topics

Polymer crystallization and properties
Physical Sciences →  Materials Science →  Polymers and Plastics
Polymer Nanocomposites and Properties
Physical Sciences →  Materials Science →  Polymers and Plastics
Material Dynamics and Properties
Physical Sciences →  Materials Science →  Materials Chemistry
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