Lithium Organic Compounds TRIZ Cases
- Organolithium Synthesis Using Stabilizing Coordinating Compounds
Stabilizing coordinating compounds enable high-yield organolithium production at mild temperatures, eliminating specialized cooling requirements.
- Lithium Dendrites via Ammonia Solvation for Organolithium Synthesis
Ammonia dissolution creates crystalline lithium dendrites with 100 times greater surface area, overcoming safety limits of mechanical powdering.
- Ionic Complex Electrolyte for High-Temperature Battery Durability
An ionic complex electrolyte forms stable solid electrolyte interfaces on battery electrodes.
- 4-Methyl-5-nonanone Synthesis via Pentanoic Anhydride
Replacing hazardous methyl triflate and expensive lithium reagents, this process uses pentanoic anhydride for safer, higher-yield synthesis.
- Benzoquinoline Extractant for Lithium Isotope Separation
A benzoquinoline extractant forms strong chelates with lithium ions to enable efficient isotope separation.
- Phosphorus Compound Electrolyte for Battery Temperature Range
A nonaqueous electrolytic solution containing a phosphorus compound forms a protective surface film on electrodes.
- Sulfonate-Based Compound for Polymer Crosslinkability and Acid Resistance
A sulfonate-based compound with fluorine groups enables polymer preparation with high molecular weight and solubility.
- Azomethine-Lithium Complex Electron Injection Layer for OLEDs
Organic compounds replace LiF to lower deposition temperatures and reduce voltage drift while increasing device lifetime.
- Organometallic Protective Layer for Organic Semiconductor Heat Resistance
An organometallic compound forms a protective layer over an organic semiconductor to enhance thermal stability during processing.
- Thin Graphene Cathode for Micro-Battery Miniaturization
Ultrathin graphene cathodes replace bulky porous structures to resolve volume constraints while maintaining lithium-oxygen battery capacity.