CA
Liaoning Technical University
Shuttle effect；lithium-sulfur batteries；First-principles calculations；g-C3N4；Transition metal atoms；Dual-atom catalysts
Pitch, Porous carbon, Electrochemical performance, Lithium-ion batteries, Negative electrode material
Supercapacitor, Transition metal selenides, Heterogeneous structure, Electrochemistry
Graphitic Carbon Nitride, Lithium Sulfur Batteries, Composites, Sulfur Confinement, Conductive Frameworks
Graphite Anode Defect Density Lithium-ion Diffusion Mechanical Properties Defect Engineering
Lithium-sulfur batteries, single-atom catalysts, Shuttle Effect, LUMO/HOMO
Graphite Electrode, Lithium Ion Intercalation；Diffusion Coefficient, MD, DFT
Shuttle effect；lithium-sulfur batteries；First-principles calculations；g-C3N4；Transition metal atoms；Single-atom catalysts
Dual-atom catalysts, single-layer g-C3N3, cathode material, lithium-sulfur batteries
composite, Li-S battery, cathode, Cycle performance, electrical chemistry
electrode material, low-temperature performance, amorphous carbon materials, nitrogen doping, dual-carbon composite material
supercapacitor, One-step hydrothermal method, Ni3S2, Electrochemical performance
porous carbon electrode materials, carbon deposition mechanism, pore size adjustment, Li-ion capacitors, first-principles calculation
graphite, defect, first-principles, energy barrier
Lithium-sulfur batteries, solution-recrystallization, electrochemical properties
