A solid insert joins airframe skins to create secure fastening locations, eliminating complex stringers and expanding fuel bay volume.
Selective edge adhesive prevents cathode separation from the organic layer, ensuring display reliability.
Discrete segmented prepreg plies with staggered unidirectional fibers enable direct molding of complex composite geometries.
PAEK vacuum bagging film replaces stiff polyimide to enable reusable consolidation of thermoplastic composites without melting.
Heating a barrier layer controls foam core penetration depth into stitch holes, resolving non-uniform expansion and irregular thickness in coated fabrics.
Segmented barrier membranes resolve the trade-off between wind resistance and breathability in composite fabrics.
A foldable electronic apparatus uses a dual-layer functional structure with distinct mechanical properties to enable bending.
Direct synthesis of hierarchically porous Y-type zeolites using controlled gel composition to balance mesopore and micropore volume without organosilane agents.
Crystalline phosphide-containing layer improves insulation coating adhesion uniformity, reducing iron loss in grain-oriented electrical steel sheets.
An organometallic intermediate layer ensures adhesion for the porous silica film, enabling wide-angle antireflection on curved surfaces.
Laminating plate-like members forms electron multiplier channels, resolving processability bottlenecks in wavy passage dynode manufacturing.
Two-stage fibre suspension deposition with intervening negative pressure cycles achieves uniform coverage and prevents weak spots in moulded receptacles.
A method forming conical nanostructures on substrate surfaces using nanoparticles as etching masks to create hyperboloid geometries.
Low-pressure injection molding with a polymer mold reduces cycle time and equipment costs while enabling complex geometries.
Stainless steel fibers enable electrostatic dissipation in polyoxymethylene while metal oxides prevent oxidative degradation from aggressive fuels.
Selective stitching of commingled fiber bundles onto substrates reduces scrap and improves placement accuracy during composite manufacturing.