Alkaline-Earth Metal Silicates TRIZ Cases
- Resin Composite Sanitary Ware With Low-Energy Self-Cleaning Surface
A resin composite with fibers, scale stone, and calcium carbonate replaces ceramic firing to cut energy use while improving strength and self-cleaning.
- Silicon Anode Material Composition for Cycle and Rate Performance
K and P in a silicon-based anode form silicate structures and lower ion diffusion barriers to improve battery cycle life and rate performance.
- Silicon-Based Anode Material Microstructure for Cycle Life and ICE
Controlled grain orientation and alkaline earth silicate phases help silicon anodes curb expansion while improving initial Coulombic efficiency and cycle life.
- Metal-Doped Silicon Oxide Anode Material for Expansion Damage Control
Metal-doped silicon oxide particles with controlled grain size and fracture strength limit expansion damage and preserve battery capacity and cycle life.
- Silicon Oxide Anode Material With Metal Doping for Expansion Damage Control
Metal-doped silicon oxide particles with controlled grain size and fracture strength limit expansion damage and preserve battery capacity.
- Lithium-Doped SiOx Anode Material for Stable High-Capacity Cycling
Lithium silicate doping and crystallinity control in SiOx anodes improve initial efficiency, capacity, and cycle stability in lithium secondary batteries.
- Forsterite-SiO2 Binder Production With Low-CO2 Autoclave Curing
Autoclave curing of crushed forsterite and SiO2 forms magnesium silicate hydrate, cutting cement-process CO2 and high-temperature energy use.
- Tricalcium Silicate Powder Sintering With Microwave-Assisted Hybrid Heating
Hybrid sintering with microwave treatment and auxiliary heating bodies improves tricalcium silicate purity while cutting temperature, time, and pollution.
- Molten Salt Coal Ash Desiliconization for Silicon Recovery
Calcium oxide molten salt removes silicon from coal ash mullite and recovers calcium silicate, raising the aluminum-silicon ratio.