Hollow particles in a light-transmissive layer scatter light and mask phosphor visibility, improving LED surface color uniformity.
Grooves and insulating dielectric fix semiconductor die stacks in place, cutting package height and reducing translocation during vibration.
A reusable preformed mask enables selective EMI shielding on semiconductor packages while keeping exposed contacts free from shorts.
A non-conformal dielectric helmet enables self-aligned BEOL vias at tight pitches, improving overlay control, yield, and via shorting margins.
An isolation ring around a TSV conductive plug buffers thermal-mismatch stress and shields electric fields to protect nearby semiconductor elements.
A moisture-oxygen barrier built into the bonding pad protects copper OLED bonding lines from oxidation, preserving conductivity and simplifying fabrication.
A chambered heat dissipation plate with internal bumps shortens thermal paths, spreads heat, and reduces ceramic substrate stress.
A continuous water channel cools substrates on both sides of a power electronics package, improving heat dissipation in compact high-power assemblies.
Alternating positive and negative photo-imageable dielectrics enable self-aligned fine-pitch vias, lowering stress and bump variation in package substrates.
A thermally conductive resin layer dissipates heat from flexible semiconductor packages without sacrificing substrate flexibility or insulation.
Embedding the serializer inside the substrate shortens sensor connections, simplifies camera assembly, and reduces module size and cost.
Thicker insulated dummy bumps and a surrounding conductive layer use reflow surface tension to limit chip misalignment and improve bonding yield.
Multiple central and peripheral temperature sensors detect thermal conductive member deterioration in stacked chips for better heat dissipation.
Angled near-edge jet cooling improves chip heat transfer while preserving orifice plate strength and hermetic sealing under high pressure.
A microparticle platinum catalyst enables one-part thermally conductive silicone grease to store at room temperature and cure without heating.
Overlapping terminals and conductors in the thickness direction shorten current paths, cutting inductance while expanding heat dissipation area.
An airgap under the silicide fuse link improves thermal isolation, boosts electromigration efficiency, and reduces programmed resistance variation.
Multiple superconducting sections create Kapitza interfaces that reflect phonons, limiting heat flow while preserving compact electrical links.
A wide bonding ribbon links RF power transistors to the matching network, easing thermal stress from power cycling without adding resonant issues.
Varying bump pad areas and solder bump layouts create dedicated heat paths through TSVs, lowering thermal resistance in stacked chips.
Dual-side femtosecond laser scribing and plasma etching enable clean wafer singulation with backside metallization and less die-edge damage.
Replacing 2.5D interposers with TSV and microbump 3D stacking increases die connections while improving yield and reducing layout complexity.
A branched flat-plate heat sink creates 3D airflow channels to improve narrow-space cooling while preserving strength and simpler manufacturing.
A conformal dielectric spacer between bottom and top vias reduces misalignment, shorts, and dielectric breakdown in scaled interconnects.
A divided cooling jacket and refrigerant groove balance flow and temperature across active elements, reducing thermal variation under high load.
Offset multi-level grooves and inorganic barrier films block moisture and gas entry while preventing metal residue leakage in panel manufacturing.
Differentiated dielectric thickness at the mark structure boosts imaging contrast, improving photoetching alignment accuracy, yield, and efficiency.
An offset carrier contact keeps electric fields from the die edge termination away from the chip carrier while supporting thermal packaging needs.