Group 3/13 Element Organic Compounds TRIZ Cases

A benzofuranyl or benzothiophenyl OLED compound enables full solution processing while improving efficiency, stability, lifetime, and driving voltage.

A boron-nitrogen multiple-resonance compound tunes substituents and ring structure to improve OLED luminescence and delayed fluorescence.

Alcohol- or water-soluble organic compounds enable thin color conversion films with narrow FWHM, high color purity, and easier display processing.

An N-heterocycle boric acid compound inhibits glioma cell proliferation, colony formation, and G2/M progression, supporting new brain tumor therapy.

A Formula 1 heterocyclic compound in the emission layer boosts luminance, response speed, and viewing angle while keeping driving voltage low.

Specific host-dopant energy alignment improves exciton and charge transfer in OLED emission layers, lowering driving voltage and extending lifespan.

A boron-containing resist composition controls acid generation and diffusion to suppress bridge defects in narrow line-and-space patterns.

A tailored boron-containing emitter uses modular substituent changes to improve delayed fluorescence and luminescent efficiency in light-emitting elements.

A heterocyclic emitter in the OLED emission layer improves charge recombination to raise luminance, color purity, response speed, and lower driving voltage.

A tailored yttrium/lanthanide precursor lowers viscosity and improves vapor delivery for uniform ALD and CVD films on complex substrates.

Using a fused polycyclic compound in the emission layer raises electroluminescence efficiency while extending light emitting element lifespan.

A cyclic gadolinium chelate improves liver-specific MRI contrast through OATP binding while reducing ion leakage from unstable linear agents.

A dibenzofuran-based n-type host raises triplet energy and supports dual dopants to curb quenching while improving OLED efficiency and lifespan.

Using fused polycyclic compounds in the emission layer helps OLED elements raise luminous efficiency while extending lifespan and supporting lower driving voltage.

Multi-NBN host compounds tune triplet energy and HOMO/LUMO levels to enable efficient deep-blue phosphorescent OLED emission.

A spin-active metal-organic host forms a low-energy exciplex with the emitter to simplify blue OLED layers and improve deep blue efficiency.

Using a condensed cyclic compound in the OLED emission layer improves carrier recombination and delayed fluorescence for brighter, faster displays.

Water-based oxidative labeling of aryl boronic acids avoids organic solvents and toxic reagents while enabling fast, high-yield radiopharmaceutical formulation.

Large conjugated boron-nitrogen emitters suppress aggregation and exciton annihilation to improve OLED efficiency, color purity, and lifetime.