<scp>d</scp>-Calcium pantothenate-derived porous carbon: carbonization mechanism and application in aqueous Zn-ion hybrid capacitors
Lantao Liu, Ziyu Sun, Yaping Lu, Jiapeng Zhang, Yiming Li, Gaixia Zhang, Xiaohong Chen, Sasha Omanovic, Shuhui Sun, Huaihe Song
Abstract
Explored the carbonization mechanism of d -calcium pantothenate, including finding the optimal carbon skeleton reconstruction, pore structure design, and defect fabrication, and constructing stable structure cathodes with high density and long service life.
Topics & Concepts
CarbonizationCalciumCarbon fibersCapacitorPorosityFabricationAqueous solutionMaterials scienceMechanism (biology)CathodeChemical engineeringIonChemistryComposite materialOrganic chemistryMetallurgyEngineeringComposite numberPhysical chemistryElectrical engineeringAlternative medicinePathologyVoltagePhilosophyScanning electron microscopeEpistemologyMedicineSupercapacitor Materials and FabricationAdvanced battery technologies researchElectrocatalysts for Energy Conversion