The present invention includes a polymer composition of at least one vinylidene chloride/alkyl acrylate polymer having from about 3.4 to about 6.7 percent mole percent of mer units derived from at least one alkyl acrylate monomer polymerized with the vinylidene chloride and comprising a plasticizer and having at least one of the following compositional characteristics (1) and (2): (1) at least one low molecular weight vinyl chloride polymer having a molecular weight of at most about 70,000 Daltons in an amount sufficient to increase affinity for at least one ink; and (2) at least one methacrylic polymer in an amount sufficient to increase the affinity for at least one ink. Surfaces comprising such a composition and articles having such surfaces are surprisingly printable and are aspects of the invention as is printing thereon.

Provided is an ink for use in electronic component production making use of screen printing, which is suitable for actually allowing fine lines with high precision to be drawn in screen printing, and for actually allowing successive screen printing operations to be performed. The ink for screen printing of the present invention includes surface-modified silver nanoparticles (A) and a solvent (B), and has a viscosity at a shear rate of 10 (1/s) and 25° C. of 60 Pa.Math.s or more. The surface-modified silver nanoparticles (A) each include a silver nanoparticle and an amine-containing protective agent coating the silver nanoparticle. The solvent (B) includes at least a terpene solvent. In solvent (B), a content of solvents having a boiling point of less than 130° C. is 20 wt % or less based on the total amount of solvents.

Provided is an ink for use in electronic component production making use of screen printing, which is suitable for actually allowing fine lines with high precision to be drawn in screen printing, and for actually allowing successive screen printing operations to be performed. The ink for screen printing of the present invention includes surface-modified silver nanoparticles (A) and a solvent (B), and has a viscosity at a shear rate of 10 (1/s) and 25° C. of 60 Pa.Math.s or more. The surface-modified silver nanoparticles (A) each include a silver nanoparticle and an amine-containing protective agent coating the silver nanoparticle. The solvent (B) includes at least a terpene solvent. In solvent (B), a content of solvents having a boiling point of less than 130° C. is 20 wt % or less based on the total amount of solvents.

The invention relates to a non-contact printing method and system as well as to a printed sensor. The method includes the steps of disposing a substrate (130) between a discharge electrode (110) and a printing material (140) such that the substrate (130) is spaced apart from the printing material (140); and activating the discharge electrode (110) to generate an electric field between the substrate (130) and the printing material (140), wherein the printing material (140) moves onto a surface (132) of the substrate (130) when the electric field attracts the printing material (140) to the surface (132) of the substrate (130). A corresponding printing system and printed sensor are also provided.

The present invention relates to a decorative material having excellent printability, and the decorative material according to the present invention has an ink-receiving layer having a radially fine sloping structure having a dendritic shape, whereby the absorbing and/or fixing property, i.e., printability, of the ink printed on the ink-receiving layer is improved, and clarity is excellent, so that aesthetic effects are excellent. In addition, since the ink-receiving layer is manufactured through UV curing, it can be directly coated on a substrate layer, and can include various kinds of substrate layers; and since it is manufactured using a solvent-free type resin composition without using an organic solvent, and has an excellent absorbing and/or fixing property with respect to a water soluble ink, it has environmental friendly advantages.

The present invention relates to a gravure printing method of conducting printing on a printing substrate with an aqueous ink reserved in an ink pan using a furnisher roll, a gravure roll, a doctor blade and a nip roll, in which the aqueous ink contains a pigment, a polymer, an organic solvent, a surfactant and water; a content of organic solvent components of the organic solvent which have a boiling point of 100 to 260° C. in the aqueous ink is not less than 0.3% by mass and not more than 12% by mass; an average particle size of particles of the pigment is from 120 to 350 nm; and an arithmetic mean roughness (Ra) of a plate surface of the gravure roll is from 10 to 140 nm. According to the present invention, it is possible to improve transfer properties of the ink to the printing substrate such as a resin film, etc., and suppress fogging on the plate surface.

An electronic circuit board manufacturing method according to the present disclosure is a method of manufacturing an electronic circuit board including a substrate and an electronic circuit having a predetermined pattern, the electronic circuit being fixed on the substrate and being made from a nanoink composition containing metal particles. The method includes the steps of: causing a printing plate to hold a nanoink composition containing metal particles, the printing plate including an ink holding part formed on a surface thereof and having a predetermined pattern; bringing a surface of the substrate into intimate contact with the printing plate to transfer the nanoink composition held on the ink holding part onto the substrate; and drying the transferred nanoink composition in an environment of 40° C. or below in the atmosphere to fix the nanoink composition after the transfer step, thereby forming an electronic circuit having a predetermined pattern.

An inline printing system comprising: a substrate feeder; an adhesive application station in communication with the substrate feeder and configured to coat a UV adhesive onto the substrate; a pressing station in communication with the adhesive application station and configured to apply laminate to the coated substrate; a UV curing station in communication with the pressing station and configured to cure the laminated substrate coated with the UV adhesive; and a digital print station in communication with the pressing station and configured to print on the laminated substrate.

A water soluble pouch containing a substrate treatment agent, the water soluble pouch having printed characters, and a process for making the same.

A method for treating a plastic surface to facilitate the adhesion of a coating. Specifically, the plastic surface is cleaned to remove surface contaminants. The resulting clean surface is then treated by a surface treatment, to thereby produce a treated surface suitable for receiving a coating. In some embodiments, the plastic surface treatment facilitates the adhesion of ink used in UV inkjet printing on plastic surfaces, including surfaces that are textured or irregularly shaped. In one embodiment of the invention, the plastic surface is a surface of a high density polyethylene (HDPE) plastic seat that is used for telescopic seating.