A fluorocarbonate and substituted propane sultone electrolyte forms stable SEI films while removing HF to improve battery life and high-temperature stability.
Aminosilyl-functionalized styrene mixtures improve silica and carbon black compatibility while maintaining hydrolytic stability in tire elastomers.
A boron and pyrene dopant pair narrows blue OLED emission while improving energy transfer, efficiency, and operational lifespan.
A tailored silicon precursor enables self-limiting ALD above 600°C, producing dense, uniform films on high-aspect-ratio substrates.
Triplet-triplet fusion is strengthened by a heterocyclic electron transporting zone that raises OLED efficiency and lowers drive voltage.
Branched organosilyl polysulfides improve rubber mixing, cut rolling resistance, preserve wet grip, and avoid VOC release during vulcanization.
A condensed cyclic emitter with EWG and EDG substituents lowers ΔEST to enable TADF, boosting OLED luminance, voltage efficiency, and lifespan.
Guanidine- and amidine-based wafer film chemistry cuts capillary forces during cleaning and drying without chlorine-related wafer damage.
Using tailored aminosilane precursors and oxygen plasma, this case shows low-temperature PEALD silicon oxide with high conformality and low impurities.
Functionalized cyclosilazanes enable low-temperature silicon film deposition with high conformality, low impurities, and stable growth control.
A fluorinated single-molecule resist boosts photolithography resolution, sensitivity, and etching resistance while reducing pattern collapse.
Acetoxy-group silicon precursors enable flowable CVD gap fill with lower Si-H density, reduced wet etch rates, and fewer voids or cracks.
A bimetallic organometallic dopant suppresses excimer formation in the OLED emission layer, improving efficiency, luminance, and lifespan.
A deuterated host in the OLED emitting layer improves TADF energy transfer and excited-state stability, extending lifetime and efficiency.