Silicon Organic Compounds TRIZ Cases

A siloxane-based crosslinker keeps three or more isocyanate groups while lowering viscosity, improving mixing, defoaming, and cured transparency.

Silicic acid esters carry aldehyde and ketone fragrances to slow evaporation and extend release in laundry and personal care products.

A tailored emitting-layer compound improves hole-electron recombination in organic EL devices, extending lifetime through controlled host-dopant design.

A chlorine-blocked metal-ligand complex prevents premature feedline reaction, then activates for efficient ethylene and α-olefin polymerization.

Functionalized silanes and SPAAC enable spatially controlled nucleic acid probe immobilization on CMOS substrates at neutral pH and room temperature.

Keeping all reagent streams at 200 ppm moisture or less enables continuous aromatic substitution with high yield and less electrophile waste.

A fluorinated patterning compound replaces shadow masks and laser steps to form fine cathode electrodes with high transmittance.

A heterocyclic emission-layer compound tunes triplet and HOMO energy levels to improve OLED driving voltage, current efficiency, and lifetime.

A non-SO aromatic ring links multiple T-type photochromic groups to curb thermal fading, preserve color density, and improve durability.

A carbonyl-linked PFPE silyl compound improves surface-layer wear resistance while preserving repellency, lubricity, and fingerprint removal.

Formula I KIF18A inhibitors are tuned for lower efflux and reduced bone marrow cytotoxicity while maintaining anti-cancer activity.

Novel compounds enhance KCC2 activity to treat neurological disorders more effectively and help reduce disorder severity.

Structural tuning of KIF18A inhibitor compounds improves selectivity, lowers bone marrow toxicity, and maintains anti-cancer activity.

Pyrene and anthracene emission-layer compounds tune energy levels and mobility to lower OLED voltage while sustaining efficiency and lifespan.

Novel chelate-forming organic compounds enable low-voltage OLED emission with higher durability, efficiency, and resistance to burn-in.

Silicon incorporation into HDAC-6 inhibitors targets liver and lung fibrosis while reducing fibrosis markers and limiting side effects.

Four-coordinate Pd, Au, Ir, and Rh complexes enable stable excimer-based white OLED emission while simplifying single-dopant device stacks.

A carbazole-based OLED compound improves hole and electron transport to cut driving voltage, raise efficiency, and extend device lifespan.

A polycyclic fused-ring boron dopant improves host-to-dopant energy transfer, enabling OLED emission with higher efficiency and lower driving voltage.

Silylation followed by thermolysis produces high-purity isocyanates at moderate temperatures, avoiding phosgene, catalysts, and high energy use.

A fused heterocyclic OLED material improves HOMO-LUMO overlap to lower driving voltage while boosting light efficiency and thermal stability.

Large-group boron nitrogen compounds ease purification while improving OLED luminescence efficiency and service life.

Chiral auxiliaries steer phosphorothioate and other internucleotidic linkages toward high stereoselectivity, yield, and purity.

Compounds targeting the Sestrin-GATOR2 interaction enable selective mTORC1 activation or inhibition across diseases where direct modulation falls short.

An adhesion-promoting compound forms a self-assembled monolayer to improve OLED wettability, in-pixel uniformity, and low-voltage performance.

A triazine-carbazole organic layer improves electron and hole transport balance, helping OLEDs achieve higher efficiency and longer lifespan.

Hydrosilylation adds phenolic hydroxyl groups to branched organopolysiloxane, improving alkali solubility and beam curability for precise resist patterning.

Phenolic hydroxyl branching improves alkali solubility without losing high energy beam curability, enabling precise resist patterning and insulating layers.

A two-stage organo-alkali/tin route raises monohydrocarbyl tin yield while limiting poly-organo contamination for EUV and UV patterning.

Co-modified branched organopolysiloxane combines phenolic hydroxyl and carboxylic groups to balance alkali solubility with high-energy beam curability.

Specific electron and hole transport compounds lower OLED driving voltage and raise efficiency while preserving wide viewing angles and contrast.

Organo-alkali intermediates enable cleaner monohydrocarbyl tin synthesis, reducing poly-organo contamination for EUV and UV patterning.

A hydrosilation-made organosilicon additive boosts tensile and bond strength in room-temperature curable resins without the viscosity rise of fillers.

Blocked tertiary amine catalysts help flexible polyurethane foam control CO2 foaming, cut amine emissions, and preserve humid-aged properties.

A heterocyclic compound in the OLED organic layer improves charge transport and recombination to raise brightness, lower voltage, and speed response.

A benzo(thio)xanthine compound linked to phenanthrofuran or phenanthrothiophene improves charge transfer, lowering driving voltage and extending OLED life.

Using a condensed cyclic compound in the emission layer improves carrier recombination, raising luminance and response speed while lowering driving voltage.

Introducing sulfonic acid ester groups into allyl fluorene compounds preserves hydrosilation while improving oxidation and light resistance.

Specific terminal groups and hydrolyzable silane bonding improve surface oil repellency and friction durability in treated layers.

A triplet-triplet annihilation host paired with a structured fluorescent dye cuts OLED driving voltage while improving luminescence efficiency and stability.

Using zinc carboxylates in organic solvent forms zinc dithiolate cleanly, avoiding ethylenediamine residues and easing isolation for catalyst production.