Hybrid Capacitor Electrolytes TRIZ Cases
- Non-Flammable Bioelectrolyte Gel for Stable Redox Supercapacitors
A hydrogen-bonded glycerol gel disperses benzoquinone to keep supercapacitors non-flammable while sustaining conductivity, cycle life, and energy storage.
- Hybrid Capacitor Polymer Coating with Washed PSSA for Lower ESR
Removing excess PSSA from a conductive polymer dispersion lowers ESR, improves capacitance stability, and reduces corrosion in hybrid capacitors.
- Lithium-Free Secondary Cell with Solid Electrolyte and Oxygen-Ion Electrodes
A solid electrolyte and mixed ionic-electronic ABO3 or CeMO2 electrodes enable low-temperature oxygen-ion storage with lower flammability risk.
- Cathode-Electrolyte Composition for High-Temperature Li-Ion Cycling
La, Y, or Nb cathode doping paired with a film-forming electrolyte additive improves Li-ion cycle life and high-temperature stability.
- 3D Capacitor Architecture for BEOL Space-Limited Semiconductors
Vertical capacitor units stacked around a pole raise capacitance and power density despite BEOL space and thermal limits.
- Embossed Porous Zinc Anode for Fast Zinc-Ion Capacitor Cycling
Embossed and punched zinc creates macropore diffusion paths and better wettability, improving zinc-ion capacitor rate capability and cycle life.
- Solid Electrolytic Capacitor Layering for Leakage and Withstand Voltage
An ionic-liquid-rich multilayer solid electrolyte improves dielectric film repairability, suppresses leakage current, and supports higher withstand voltage.
- Solid Electrolyte Layer Structure for High-Voltage Proton Storage
A SiNy/SiOx insulating stack boosts proton conduction and breakdown resistance, enabling higher-voltage charging without storage loss or degradation.
- Boron Electrolyte Additive for Stable SEI in Secondary Batteries
A boron-containing electrolyte additive forms a stable SEI that suppresses decomposition and side reactions, improving battery life at high temperature.
- P,B-Doped Carbon Electrode for High-Rate Zinc Hybrid Supercapacitors
Phosphorus and boron doping improves carbon electrode wettability and conductivity, helping zinc ion hybrid supercapacitors keep capacity at high current.
- Solid-State Power Storage Interface Layer for Higher Capacity Density
A carbon-solid electrolyte boundary layer expands electrode interface area, raising capacity density without major manufacturing complexity.
- Aluminum Battery Electrolyte Composition for Stable SEI Formation
Asymmetric ammonium salt electrolytes stabilize the aluminum anode SEI, enabling reversible plating and stripping with high coulombic efficiency.
- Fluorinated Phosphazene Electrolyte for High-Voltage Supercapacitors
A fluorinated phosphazene additive helps supercapacitor electrolytes widen voltage and temperature range while improving cycle stability and safety.
- Mixed-Alkali Aqueous Electrolyte for Reflow-Stable Power Storage
Mixed lithium and potassium cations raise aqueous electrolyte boiling behavior, preventing reflow bursting and cracking in power storage devices.
- Solid Electrolytic Capacitor Lead Welding Without Electrolyte Damage
A rearward overhead laser path welds the anode lead frame while protecting the organic electrolyte layer and preserving capacitor characteristics.
- Supercapacitor Power Supply for Fast-Charging Aerosol Provision
Using a supercapacitor charged from a mobile phone, this case cuts aerosol device recharge time while supporting repeated puff cycles.
- Lithium-Ion Capacitor Power Source for Fast-Charging Aerosol Provision
Using a doped lithium-ion capacitor, this aerosol power source cuts recharge time to under 12 minutes while supporting up to 200 puffs.
- Garnet Oxide Electrolyte Composition With High Li-Ion Conductivity
Controlled Li occupancy in garnet oxide enables simpler production while delivering stable solid electrolyte conductivity above conventional tetragonal LLZ.
- Garnet Oxide Electrolyte with Tetragonal Phases for Simpler Production
Using two tetragonal garnet phases, this oxide eases firing control while maintaining high lithium-ion conductivity for power storage devices.