Synthesis and electrochemical evaluation of porous carbon derived from sanitary pad waste for high performance in symmetric supercapacitor application

Keyphrases

• High Performance 100%
• Electrochemical Test 100%
• Porous Carbon 100%
• Synthetic Evaluation 100%
• Symmetric Supercapacitor 100%
• Supercapacitor Application 100%
• Sanitary Pads 100%
• Na2SO4 Electrolyte 100%
• Global Climate Change 50%
• Porous Materials 50%
• Energy Density 50%
• Electrochemical Performance 50%
• Fourier Transform Infrared Spectroscopy (FT-IR) 50%
• Scanning Electron Microscopy 50%
• Electrode Materials 50%
• Raman Spectroscopy 50%
• Activated Carbon 50%
• Charge Transfer 50%
• Aqueous Electrolyte 50%
• Operating Potential Window 50%
• Carbonization 50%
• Ion Charge 50%
• Large Surface Area 50%
• X-ray Spectroscopy 50%
• High Specific Capacitance 50%
• Ion Transport 50%
• Carbon Materials 50%
• Brunauer-Emmett-Teller 50%
• Good Electrical Conductivity 50%
• Biowaste 50%
• Symmetric Supercapacitor Device 50%
• High Cyclic Stability 50%
• Large Specific Area 50%
• Biomass Activated Carbon 50%
• High-performance Electrode Material 50%
• Renewable Energy Storage System 50%
• Waste-derived 50%

Material Science

• Porous Carbon 100%
• Symmetric Supercapacitor 100%
• Energy Density 33%
• Fourier Transform Infrared Spectroscopy 33%
• Raman Spectroscopy 33%
• X-Ray Diffraction 33%
• Scanning Electron Microscopy 33%
• Capacitance 33%
• Electrical Conductivity 33%
• Supercapacitors 33%
• X-Ray Spectroscopy 33%