Apple Pectin-Based Hydrogel Electrolyte for Energy Storage Applications

被引:13
作者
Chelfouh, Nora [1 ]
Coquil, Gael [1 ]
Rousselot, Steeve [1 ]
Foran, Gabrielle [1 ]
Briqueleur, Elsa [1 ]
Shoghi, Fatemeh [1 ]
Caradant, Lea [1 ]
Dolle, Mickael [1 ]
机构
[1] Univ Montreal, Dept Chim, Lab Chim & Electrochim Solides, Montreal, PQ H2V 0B3, Canada
基金
加拿大自然科学与工程研究理事会;
关键词
biomaterials; pectin; polymer hydrogel electrolyte; ionic conductivity; energy storage application; SOLID-STATE; POLYMER; BATTERIES; EXTRACTION;
D O I
10.1021/acssuschemeng.2c04600
中图分类号
O6 [化学];
学科分类号
0703 ;
摘要
Demand for flexible energy storage devices is rapidly increasing due to the development of new wearable and flexible electronics. These developments require improved integration of energy storage devices to meet the design specifications of these products. Polymer hydrogels are an alternative class of flexible electrolytes that can be used in power source systems. Herein, we present a new sustainable hydrogel electrolyte material made with apple pectin. Using an easy solution casting approach, a bio-based hydrogel was formed via pectin gelation. The resultant hydrogel was made with environmentally benign compounds including water, zinc and/or lithium sulfate salt, and a bio-based polymer. This hydrogel electrolyte exhibits ambient temperature ionic conductivities that are similar to those found in aqueous liquid electrolytes (similar to 5 x 10-2 S cm-1), depending on electrolyte hydration. Its wide thermal stability window enables the electrolyte to be used at both low temperatures (-20 degrees C) and intermediate temperatures (50 degrees C), without significant changes in ionic conductivity (>10-3 S cm-1). By proposing an energy-oriented solution using one of the food industry's major waste materials, we report a novel approach to processing a bio-based polymer for energy storage purposes.
引用
收藏
页码:15802 / 15812
页数:11
相关论文
共 66 条
[1]  
[Anonymous], 2021, ENV FRIENDL PRINT BA
[2]  
Bard A.J., 2000, ELECTROCHEMICAL METH, P368
[3]   Raman study of cation effect on sulfate vibration modes in solid state and in aqueous solutions [J].
Ben Mabrouk, Kawther ;
Kauffmann, Thomas H. ;
Aroui, Hassen ;
Fontana, Marc D. .
JOURNAL OF RAMAN SPECTROSCOPY, 2013, 44 (11) :1603-1608
[4]   Egg-box model-based gelation of alginate and pectin: A review [J].
Cao, Lianqi ;
Lu, Wei ;
Mata, Analucia ;
Nishinari, Katsuyoshi ;
Fang, Yapeng .
CARBOHYDRATE POLYMERS, 2020, 242
[5]   Extrusion of Polymer Blend Electrolytes for Solid-State Lithium Batteries: A Study of Polar Functional Groups [J].
Caradant, Lea ;
Verdier, Nina ;
Foran, Gabrielle ;
Lepage, David ;
Prebe, Arnaud ;
Ayme-Perrot, David ;
Dolle, Mickael .
ACS APPLIED POLYMER MATERIALS, 2021, 3 (12) :6694-6704
[6]   Process development and simulation of pectin extraction from orange peels [J].
Casas-Orozco, Daniel ;
Luz Villa, Aida ;
Bustamante, Felipe ;
Gonzalez, Lina-Maria .
FOOD AND BIOPRODUCTS PROCESSING, 2015, 96 :86-98
[7]   Influence of Pectin Structural Properties on Interactions with Divalent Cations and Its Associated Functionalities [J].
Celus, Miete ;
Kyomugasho, Clare ;
Van Loey, Ann M. ;
Grauwet, Tara ;
Hendrickx, Marc E. .
COMPREHENSIVE REVIEWS IN FOOD SCIENCE AND FOOD SAFETY, 2018, 17 (06) :1576-1594
[8]   Interactions between citrus pectin and Zn2+ or Ca2+ and associated in vitro Zn2+ bioaccessibility as affected by degree of methylesterification and blockiness [J].
Celus, Miete ;
Kyomugasho, Clare ;
Salvia-Trujillo, Laura ;
Van Audenhove, Jelle ;
Van Loey, Ann M. ;
Grauwet, Tara ;
Hendrickx, Marc E. .
FOOD HYDROCOLLOIDS, 2018, 79 :319-330
[9]   Dead lithium: mass transport effects on voltage, capacity, and failure of lithium metal anodes [J].
Chen, Kuan-Hung ;
Wood, Kevin N. ;
Kazyak, Eric ;
LePage, William S. ;
Davis, Andrew L. ;
Sanchez, Adrian J. ;
Dasgupta, Neil P. .
JOURNAL OF MATERIALS CHEMISTRY A, 2017, 5 (23) :11671-11681
[10]   Solution NMR Spectroscopy of Food Polysaccharides [J].
Cheng, H. N. ;
Neiss, Thomas G. .
POLYMER REVIEWS, 2012, 52 (02) :81-114