A thermosensitive recording medium with a hydrophobic resin layer maintains optical clarity.
A convexo-concave protective member reduces contact area on a thermosensitive recording medium to prevent scratches and dirt accumulation.
Chelating agents in the undercoat and protective layers sequester phthalates and metal cations to enhance plasticizer resistance and preprint uniformity.
Cylindrical lenses concentrate laser beams on resin sheets, reducing marking time while maintaining structural simplicity.
A foil transfer device adjusts laser power via a controller to maintain consistent heat application during scanning.
A laser-imageable tape construct uses near-infrared absorbing ink layers to create distinct colored images on polymeric substrates.
Styrene-acryl copolymer with high acid value prevents adhesive migration, eliminating peeling and curling in thermosensitive recording materials.
Anionic fluorosurfactants adjust surface energy in ink-receiving layers to constrain dot size variation, eliminating pick-up tire and pressure markings.
A decoloring apparatus uses heat rollers of varying thickness to manage thermal capacity across the conveyance path.
Replacing halogens with phosphorus-nitrogen synergists and carbon black achieves UL 94 V-0 ratings while maintaining mechanical strength.
Composite acrylate and metal sulfate additives absorb laser energy to maintain high contrast on dark backgrounds across varied parameter settings.
Smoothing partially melted metallic ink layers prevents bumpy surface planarity, ensuring sufficient glossiness when transferred onto target mediums.