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Achieving high energy density with all pseudocapacitive asymmetric materials as energy storage device: Metallic ruthenium confined in MOF-derived N-doped porous carbon as positive and free-standing Ti3C2 film as negative electrode

Elangovan Sivasurya, Mari Elancheziyan, Francis Ashamary, G Maheswari, Raji Atchudan, Mohamed Gamal Mohamed, Padmanaban Annamalai, Keehoon Won, Pramod K. Kalambate, Shiao‐Wei Kuo, Devaraj Manoj

2025Journal of Power Sources6 citationsDOI

Topics & Concepts

Materials scienceCapacitancePseudocapacitanceFaraday efficiencyRuthenium oxideChemical engineeringElectrodeRutheniumEnergy storageSupercapacitorDiffusionNanotechnologyPower densityCarbon fibersMetalCurrent densityIonInorganic chemistryCapacitive sensingPorosityMetal-organic frameworkSulfuric acidAnalytical Chemistry (journal)Supercapacitor Materials and FabricationMXene and MAX Phase MaterialsAdvancements in Battery Materials
Achieving high energy density with all pseudocapacitive asymmetric materials as energy storage device: Metallic ruthenium confined in MOF-derived N-doped porous carbon as positive and free-standing Ti3C2 film as negative electrode | Litcius