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Ultra-superior high-temperature energy storage properties in polymer nanocomposites <i>via</i> rational design of core–shell structured inorganic antiferroelectric fillers

Zhenhao Fan, Shuaibing Gao, Yunfei Chang, Dawei Wang, Xin Zhang, Haitao Huang, Yunbin He, Qingfeng Zhang

2023Journal of Materials Chemistry A58 citationsDOI

Abstract

Polyetherimide nanocomposites with core–shell structured (Pb, La)(Zr, Sn, Ti)O 3 @Al 2 O 3 antiferroelectric nanoparticle fillers deliver an ultra-high discharged energy density of 10.2 J cm −3 and a large efficiency of 83.5% at 150 °C.

Topics & Concepts

PolyetherimideMaterials scienceNanocompositeNanoparticleAntiferroelectricityCore (optical fiber)Composite materialPolymerEnergy storageShell (structure)Chemical engineeringNanotechnologyDielectricEngineeringOptoelectronicsPower (physics)PhysicsFerroelectricityQuantum mechanicsDielectric materials and actuatorsFerroelectric and Piezoelectric MaterialsAdvanced Sensor and Energy Harvesting Materials
Ultra-superior high-temperature energy storage properties in polymer nanocomposites <i>via</i> rational design of core–shell structured inorganic antiferroelectric fillers | Litcius