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Rarely negative-thermovoltage cellulose ionogel with simultaneously boosted mechanical strength and ionic conductivity <i>via</i> ion-molecular engineering

Qunfeng Chen, Binbin Cheng, Zequn Wang, Xuhui Sun, Yang Liu, Haodong Sun, Jianwei Li, Jianwei Li, Lihui Chen, Xuhai Zhu, Liulian Huang, Yonghao Ni, Meng An, Jianguo Li, Jianguo Li

2022Journal of Materials Chemistry A57 citationsDOI

Abstract

Ion-molecular engineered negative-thermovoltage cellulose ionogel overcoming the trade-off mechanical strength and conductivity.

Topics & Concepts

CelluloseIonIonic conductivityIonic liquidConductivityMaterials scienceIonic strengthMechanical strengthComposite materialChemical engineeringChemistryOrganic chemistryPhysical chemistryEngineeringCatalysisElectrodeElectrolyteAqueous solutionTransition Metal Oxide NanomaterialsThermal Radiation and Cooling TechnologiesSolar-Powered Water Purification Methods
Rarely negative-thermovoltage cellulose ionogel with simultaneously boosted mechanical strength and ionic conductivity <i>via</i> ion-molecular engineering | Litcius