Latest Research in Covalent Organic Framework Applications
15 research papers · 2026 median publication year
Top Research Topics in Covalent Organic Framework Applications
- Advancements in Battery Materials — 12 papers
- Covalent Organic Framework Applications — 1 papers
- Fiber-reinforced polymer composites — 1 papers
- Advanced battery technologies research — 1 papers
Highest-Cited Papers
- Architecting 1D dual-confinement networks for mechanically resilient CoSe2 anodes in potassium-ion batteries
- Paper reinforced nitrogen-doped phenolic resin derived 2D self-interwoven hard carbon network anodes for high-energy sodium-ion storage
- Revealing Non-Steady-State Structure–Performance Relationship in Plateau-Capacity-Dominated Hard Carbon Anodes for High-Rate Reversible Sodium Storage
- Synergistic regulation of pore structure in PAN-based carbon nanofibers with lignin and pitch for sodium-ion storage
- Pore Mouth Engineering: An Insulating Strategy to Dictate Interfacial Chemistry in Hard Carbon Anodes
- Pore Mouth Engineering: An Insulating Strategy to Dictate Interfacial Chemistry in Hard Carbon Anodes
- Plasma‐Tailored Vertical Graphene Sheath Boosts Sodium‐Storage Kinetics in Starch‐Derived Hard Carbon Anodes
- Elucidating Sodium-Ion Storage Mechanisms in Bowl-Shaped Hierarchical Porous Carbon Anodes: A Combined Solid-State NMR and EPR Approach
- Structural Evolution of Biphenyl Phenolic Novolac Resin–Derived Hard Carbon for Enhanced Sodium Storage
- Defect‐Guided Etching of Coal Tar Pitch Toward Hierarchical Porous Carbon Cathodes for High‐Energy Sodium‐Ion Capacitors
- Bipolar Organic Electrodes for Energy Storage: A Review of Structural Design, Electrolyte Adaptation, and Future Perspectives
- The Past, Present, and Future of Biomass‐Derived Hard Carbon for Sodium‐Ion Batteries
- Rapid Temperature Shock Suppresses Graphitized Stacking: Guiding Quasi-Ionic-Bonding Na Storage in Hard Carbon
- Breaking the Specific Capacity Limit: 409% Boost in Manganese-Based Redox Flow Batteries at High Current Densities with a MnO2 Semi-Solid Slurry Electrolyte
- Dichalcogenide Electronegativity Engineering Enables Low‐Redox‐Potential Organic Anodes for High‐Performance Calcium‐Ion Batteries