Hybrid Capacitor Electrolytes TRIZ Cases
- Battery Electrolyte Additives for High-Temperature Gas Suppression
Specific electrolyte additives form protective electrode films that curb gas generation and metal dissolution during high-temperature battery storage.
- Mo2C Nanosheet Composite Electrode for Stable High-Capacitance Storage
Nitrogen-doped Mo2C nanosheets with pore-penetrating electrolyte improve ion transport, capacitance retention, and durable energy storage.
- Non-Aqueous Lithium Cell Electrolyte for High-Temperature Durability
A mixed lithium-salt electrolyte and composite carbon electrodes improve high-temperature durability while preserving power and energy density.
- MPN-Carbonate Electrolyte for Low-Temperature Metal Ion Cells
Using 3-methoxypropionitrile with linear carbonates keeps the electrolyte conductive at low temperatures while preserving capacity retention and CE.
- Carbon-Sulfur Cathode Electrolyte for Higher Sulfur Utilization
Porous carbon with 2.0-7.0 nm pores and an unsaturated cyclic carbonate electrolyte boosts sulfur utilization and discharge capacity.
- Bicyclic Triolborate Electrolytes for Wide-Window Supercapacitors
Bicyclic triolborate electrolytes raise ion density and cut solvent use to improve supercapacitor charge capacity, stability, and lifespan.
- Lithium-Ion Electrode Binder Slurry Without NMP Solvent
A fluoropolymer and heterocyclic addition polymer slurry replaces NMP while preserving electrode adhesion, dispersion stability, and interconnectivity.
- Nonaqueous Electrolyte Additives for Low-Temperature Voltage Stability
Isocyanate and phenol additives form a low-resistance protective film that preserves ion conductivity and output voltage in cold conditions.
- Electrolyte Composition for Li-Ion Batteries Under High-Temperature Storage
Specific electrolyte compounds improve solubility and stability, lowering initial resistance and gas generation during high-temperature storage.
- Electrolyte Composition for Stable High-Voltage Cathode Protection
A dinitrile-trinitrile-propyl propionate electrolyte sustains cathode protection at high voltage while limiting solvent decomposition and DC resistance.
- Silicon Battery Electrolyte Additives for Stable SEI and High-Voltage Cycling
Carboxylic ether, carboxylic salt, and acrylate additives stabilize SEI and CEI layers to reduce capacity fade in silicon high-voltage cells.
- Soft Carbon Electrode Prelithiation for Faster SEI Formation
A staged high-current, low-current, and constant-voltage prelithiation route cuts time while improving SEI completeness and coulombic efficiency.
- Skeleton-Layer Lithium Anode and Electrolyte for Uniform Deposition
A skeleton-layer anode with an insulated collector region and sulfone-phosphorus-fluoroether electrolyte evens lithium plating and cuts dendrite risk.
- Nitrile Electrolyte Composition for High-Voltage Battery Interface Stability
Specific dinitrile, trinitrile, and propyl propionate ratios build a cathode protective film that limits decomposition and DC resistance rise.
- Solid Electrolyte Layer Strength for Low-Leakage Capacitors
Controlling solid electrolyte breaking strength helps sealed solid electrolytic capacitors resist stress cracks and keep leakage current low.
- Gel Electrolyte Supercapacitor Electrodes for High Cycle Stability
Molybdenum-doped carbon nanocomposite electrodes raise capacitance and energy density while retaining 88-90% capacitance after 10,000 cycles.
- Nb2O5-LMO Energy Storage Cell for Fast Charge and Cycle Stability
Nb2O5 and activated carbon in the negative electrode curb manganese dissolution, enabling fast charge, lower resistance, and longer cycle life.
- MXene-Coated Fiber Membrane Generator for Direct Current Harvesting
An electrical double layer on a MXene-coated hydrophilic fiber membrane generates DC power directly, avoiding rectifiers and mechanical wear.