A silicon-containing sulfonium salt improves underlayer curing, suppresses diffusion, and balances etch rate with lower LWR and CDU.
Tin organometallic EUV photoresist with ketone and aromatic additives improves photospeed while limiting line edge roughness and defects.
A terpene-skeleton silane plus sulfur silane improves silica dispersion and interface flexibility to balance wet grip, fuel efficiency, and wear.
A blocked mercaptosilane with two polymer-reactive groups strengthens silica-polymer bonding to improve tire wet grip, handling, and rolling resistance.
Light-triggered crosslinking in an organometallic photoresist improves storage stability, etch resistance, and fine pattern precision.
A carboxyl-substituted polycyclic solvent composition removes metal-resist edge beads while reducing contamination and line edge roughness.
A silane cathode additive and anode film former build CEI and SEI layers that limit electrolyte breakdown and extend high-capacity battery life.
A three-step solvent, acid or alkali, and ultrapure water cleaning sequence removes stannoxane residue and preserves tin compound purity.
An asymmetric cycloalkyl silicon precursor enables PECVD thin films with low dielectric constant, high hardness, thermal stability, and adhesion.
A dual-triazole coupling agent boosts adhesion between metals, inorganic materials, and resins while resisting heat and alkali.
A tin-containing polymer underlayer improves EUV patterning by balancing absorbance, film filling, and dry etch resistance after baking.
Hydrolyzed silicon compounds and a crosslinking catalyst improve resist adhesion in positive and negative development while preventing fine EUV pattern collapse.
Sequential ALD cycles tune dopant levels in hafnium oxide thin films from 1.5 to 9 mol%, enabling strong ferroelectricity in ultra-thin layers.
A deprotected surface treatment film enables direct fine metal patterning without photoresist or etching, cutting process steps and storage burden.
An adamantane-boron organic compound improves carrier stability and host energy transfer, raising OLED efficacy while lowering driving voltage.
Light-triggered amine generation enables direct fine metal patterning on substrates without photoresist, development, or etching.