Luminescent Compositions TRIZ Cases
- Anthracene Boron-Nitrogen OLED Compound Low Voltage Stability
Combining this anthracene derivative with a boron-nitrogen compound reduces driving voltage while extending device service life through enhanced stability.
- Radiation Hardened Elastomer Scintillator for High Energy Physics
Phenyl group polysiloxanes resist radiation damage to sustain light output and reduce calibration needs in high energy physics detectors.
- Group III-V Quantum Dot Core-Shell Structure for Stability
A group III-V quantum dot with a group II-VI shell resolves toxicity and stability trade-offs by reducing electronic traps.
- Organic EL Device Dual Emitting Layers for Efficiency
Directly contacting distinct host material layers improves luminous efficiency by optimizing exciton formation and reducing device complexity.
- OLED Emission Layer Host-Dopant Mixture for Efficiency and Lifetime
Mixed host materials paired with organometallic dopants boost OLED efficiency and lifetime while lowering driving voltage.
- Treated Particles for Silicone Curing Speed and Rheology Control
Nitrogen-treated particles neutralize acidic sites to boost curing speed without premature gelation.
- CuGaS Quantum Dot Double-Shell Structure for Stability
A segmented core and shell design improves chemical stability without increasing device complexity, enabling high quantum yield.
- Inorganic Fluoride Luminescent Material Synthesis via Non-Aqueous Solvents
Non-aqueous solution mixing excludes water, preventing hydroxide ion interference and stabilizing optical characteristics.
- Organometallic OLED Host Mixture for Efficiency and Lifetime
A light-emitting layer combines an organometallic phosphorescent dopant with a dual host material mixture to enhance luminous efficiency.
- Phosphor Powder Manufacturing Reducing Secondary Phases
Excessive barium and acid cleaning remove Ba2Si5N8 secondary phases, preventing orange light emission that degrades optical characteristics.