Scholarlink

<p>Solid biodegradable polymer blend electrolytes have been prepared along with magnesium nitrate salt using solution casting technique. The X-ray diffraction analysis confirms the increase in amorphous nature of the prepared polymer electrolytes by blending PVDF-HFP with starch. The FTIR spectra reveal the various vibrational frequencies of hydroxyl, carbonyl and carboxyl group of polymer electrolytes. The maximum ionic conductivity value is observed for 15% of magnesium nitrate doped system at ambient temperature. Thermal studies are also carried out for higher conducting film from room temperature to 600˚C to determine glass transition temperature and decomposition temperature of the electrolyte. Electrochemical measurements have been performed for higher conducting electrolyte to determine the electrochemical behaviour. It shows the potential window of -0.5 to 0.4&#xa0;V with equal range of oxidation and reduction peaks that confirms the pseudo-capacitive nature. The charge–discharge studies are observed with current range from 0.2-2&#xa0;mA and these results indicate the prepared biopolymer electrolytes are suitable for energy storage applications.</p>

错误：搜索内容不能为空，请输入英文关键词
错误：关键词超出字数限制，请精简
高级检索

Studies on starch based magnesium ion conducting biopolymer blend electrolytes for electric doulbe layer capacitors coupled with bio-activated carbon electrodes

  • 期刊论文

  • 出版模式：

    开放获取

  • 发表日期：

    2026年7月21日

查看全文
  • C. Nithya Priya,
  • M. Muthuvinayagam,
  • K. Rajammal

摘要

Solid biodegradable polymer blend electrolytes have been prepared along with magnesium nitrate salt using solution casting technique. The X-ray diffraction analysis confirms the increase in amorphous nature of the prepared polymer electrolytes by blending PVDF-HFP with starch. The FTIR spectra reveal the various vibrational frequencies of hydroxyl, carbonyl and carboxyl group of polymer electrolytes. The maximum ionic conductivity value is observed for 15% of magnesium nitrate doped system at ambient temperature. Thermal studies are also carried out for higher conducting film from room temperature to 600˚C to determine glass transition temperature and decomposition temperature of the electrolyte. Electrochemical measurements have been performed for higher conducting electrolyte to determine the electrochemical behaviour. It shows the potential window of -0.5 to 0.4 V with equal range of oxidation and reduction peaks that confirms the pseudo-capacitive nature. The charge–discharge studies are observed with current range from 0.2-2 mA and these results indicate the prepared biopolymer electrolytes are suitable for energy storage applications.