Pre-dry precoating liquid before white ink ejection to prevent sheet-to-sheet ink transfer.
This case shows how low-nitrocellulose binders reduce friction sparks and combustion while preserving metallic print quality.
A dual-resin ink forms a light conversion layer that protects quantum dots from oxygen and moisture, preserving luminous efficiency.
A hydrophobic-sulfonate dispersion resin helps re-disperse solidified coloring material and maintain ink ejection stability.
A thin photopatternable siloxane layer helps flexible substrates resist scratching while retaining bendability and adhesion.
Esterified terephthalate vehicles keep ceramic ink stable during printing and reduce harmful thermal-treatment emissions.
Allyl-polymer ink combines modified rosin or terpene resin with ethylenic bonds for adhesion, fluidity, and rapid radiation curing.
Formaldehyde-free pigment binders preserve wash resistance and coating adhesion.
Controlled aromatic, acid, urethane, and urea levels support textile ink color, adhesion, nozzle ejection, and fabric followability.
The approach uses light transmittance and haze constraints to support curing while preserving permeability in contact regions.
A resin-controlled black ink and sub-700 nm exposure limit moisture loss while preserving image density, gloss, and paper flatness.