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Conducting biopolymer electrolyte based on pectin with magnesium chloride salt for magnesium battery application

机译:基于氯化镁盐的镁电池施用进行基于果胶的生物聚合物电解质

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Currently, biopolymer electrolytes are attracting a great deal of interest as substitute for synthetic polymer electrolytes in electrochemical devices, as they are carbon neutral, sustainable, reduce dependency on non-renewable fossil fuels and easily biodegradable. Some of the biopolymers under research are chitosan, pectin, agar-agar, cellulose acetate and carrageenan. The current work deals with the study of ion conducting polymer electrolyte, pectin with magnesium chloride salt for magnesium battery application. Biopolymer electrolytes of different compositions of pectin with different concentrations of magnesium chloride salt are prepared by solution casting technique and subjected to various studies like by X-ray diffraction (XRD), Fourier transform infrared (FTIR), differential scanning calorimetry (DSC), AC impedance spectroscopy and linear sweep voltammetry (LSV). XRD analysis has been used to identify the amorphous/crystalline nature of the sample. The complex formation between the polymer pectin and the magnesium chloride salt has been analyzed by FTIR spectroscopy. DSC analysis is a thermo-analytical technique which is used to observe the glass transition temperature (T-g) of the samples. AC impedance technique has been used to find the ionic conductivities of the sample. The electrochemical stability of the polymer electrolyte has been analyzed by linear sweep voltammetry. Among the prepared polymer electrolytes, 30 M wt% pectin: 70 M wt% MgCl2 offers the highest ionic conductivity of 1.14 x 10(-3) S cm(-1). The electrochemical stability of the highest conducting sample is 2.05 V. The primary magnesium battery has been constructed using the highest conducting sample, 30 M wt% pectin: 70 M wt% MgCl2, and the battery performance has been studied.
机译:目前,生物聚合物电解质作为电化学装置中的合成聚合物电解质的替代品吸引了大量兴趣,因为它们是碳中性,可持续的,减少对不可再生化石燃料的依赖性,并且易于生物降解。研究中的一些生物聚合物是壳聚糖,果胶,琼脂 - 琼脂,醋酸纤维素和角叉菜胶。目前的工作涉及离子导电聚合物电解质,果胶用镁电池施用的氯化镁盐。通过溶液铸造技术制备具有不同浓度氯化镁盐的果胶的生物聚合物电解质,并通过X射线衍射(XRD),傅里叶变换红外(FTIR),差示扫描量热法(DSC),AC等各种研究。阻抗光谱和线性扫描伏安法(LSV)。 XRD分析用于鉴定样品的无定形/结晶性质。通过FTIR光谱分析聚合物果胶和氯化镁盐之间的复合物形成。 DSC分析是一种热分析技术,用于观察样品的玻璃化转变温度(T-G)。 AC阻抗技术已用于找到样品的离子电导率。通过线性扫描伏安法分析了聚合物电解质的电化学稳定性。在制备的聚合物电解质中,30Mwt%果胶:70m wt%MgCl 2提供1.14×10(3)厘米(-1)的最高离子电导率。最高导电样品的电化学稳定性为2.05V。使用最高导电样品,30μmwt%MgCl2的初级镁电池构成,研究了电池性能。

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