Opposing voltages between a grid member and mask create electrostatic support that prevents sagging and preserves deposition precision on large substrates.
Probability-based representative particles and voxel states predict film quality and coverage faster than Monte Carlo-heavy deposition simulation.
An Al2O3 or AlCrXN intermediate layer blocks binder diffusion and improves diamond CVD adhesion on cemented carbide.
A patterned inorganic bridge around the mask membrane limits thin-film stress and warpage, improving pixel position accuracy during deposition.
Alternating multi-source deposition improves layer uniformity and refractive index control while cutting display manufacturing time and waste.
Adjusting the second vapor-deposition layer thickness uses optical interference to expand the color palette of substrate coatings beyond single-layer options.
A through-hole ferrule leaves a preset gap between fiber ends, reducing insertion force, wear, pollution, and optical transmission loss.
Multiple high- and low-index layers reduce ambient-light interference in NIR receivers, improving 3D image generation and gesture-recognition accuracy.
Roll-to-roll processing forms flexible polymer films beyond 300 mm while preserving nanostructured optical phase, amplitude, and polarization control.
Reactive nitrogen–argon sputtering forms 500–1500 nm CrN films at moderate pressure, offering a lower-cost alternative to molecular beam epitaxy for cryogenic sensors.