Provided is a textile printing paper for use in a paper printing method, the textile printing paper being excellent in color development on a printing substrate, transferred unevenness suppressing property and strike-through resistance while satisfying the requirements for adhesiveness of a printed paper to a printing substrate. The textile printing paper comprises a base paper and a glue layer on a surface of the base paper, the base paper having a sizing degree of 10 g/m.sup.2 to 40 g/m.sup.2 as measured according to JIS P 8140:1998.

Stitching is applied to a shoe or shoe component and then printed. The stitching may be formed from a continuous thread. After printing, a portion of the continuous thread may have a different color or appearance from other portion(s) of the continuous thread.

Methods of making a supramolecular structure of lipids. The methods include providing an ink made of an aqueous solution of lipid micelles that are deposited onto a polymer pen or an array of polymer pens, such as by an electrospray technique to achieve a homogenous coverage of single and isolated micelles. The method further comprises transferring the ink to a substrate using polymer pen lithography (PPL). Nanoconfinement of the lipid micelles associated with the disclosed method, allow the lipid micelles to rearrange and ultimately lead to a highly ordered and homogenous supramolecular lipid structure. A supramolecular assembly made using the disclosed method and nanoscale delivery system comprising the supramolecular assembly of lipids are further disclosed.

Methods of making a supramolecular structure of lipids. The methods include providing an ink made of an aqueous solution of lipid micelles that are deposited onto a polymer pen or an array of polymer pens, such as by an electrospray technique to achieve a homogenous coverage of single and isolated micelles. The method further comprises transferring the ink to a substrate using polymer pen lithography (PPL). Nanoconfinement of the lipid micelles associated with the disclosed method, allow the lipid micelles to rearrange and ultimately lead to a highly ordered and homogenous supramolecular lipid structure. A supramolecular assembly made using the disclosed method and nanoscale delivery system comprising the supramolecular assembly of lipids are further disclosed.

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.

An ink composition for screen printing for a glass substrate includes a solvent with a boiling point at least 170° C. at least 70 mass % of the total solvent and a prepolymer or polymer with a weight-average molecular weight of at least 2000 at least at 2 mass % with respect to total ink composition, and with a viscosity of 5 to 180 Pa.Math.s measured with a BH-type rotating viscosimeter at 25° C. and thixotropic index (TI value) of 2.0 to 8.0, the measured flow radius value being 13.0 to 24.0 mm after 1 minute from start of measurement by a flow property measuring method using a spread meter at 25° C. according to JIS K5701-1:2000, satisfying “F60”−“F45”≦1.0 mm, where “F60” and “F45” are measured flow radius values after 1 minute and 45 seconds, respectively, from start of measurement, and containing a coupling agent compound.

A master tool is provided with an ink pattern on a major surface thereof. The ink pattern is formed by a screen printing process. A stamp-making material is applied to the major surface of the master tool to form a stamp having a stamping pattern being negative to the ink pattern of the master tool. The stamping pattern is inked with an ink composition and contacted with a metalized surface to form a printed pattern on a metalized surface of a substrate according to the stamping pattern. Using the printed pattern as an etching mask, the metalized surface is etched to form electrically conductive traces on the substrate.

A master tool is provided with an ink pattern on a major surface thereof. The ink pattern is formed by a screen printing process. A stamp-making material is applied to the major surface of the master tool to form a stamp having a stamping pattern being negative to the ink pattern of the master tool. The stamping pattern is inked with an ink composition and contacted with a metalized surface to form a printed pattern on a metalized surface of a substrate according to the stamping pattern. Using the printed pattern as an etching mask, the metalized surface is etched to form electrically conductive traces on the substrate.

The present invention provides a method for applying multiple ink and/or coating layers on a substrate. At least one of the ink and/or coating layers contains one or more photoinitiators, and at least one of the ink and/or coating layers does not contain any photoinitiators. In certain embodiments, all of the ink and/or coating layers are wet trapped and the entire print construct is cured by exposure to UV radiation after all of the ink and/or coating layers have been applied. In certain embodiments, the wet trapping method of the present invention can be used to prepare laminates.

This invention is about a digital printing method of cover sheet of a flexible material of required features of density, flexibility and thickness. This method includes steps of printing a cover sheet of woven or non-woven fabric, by using digital or computerized printing techniques, either direct printing or by transfer paper printing or sublimation printing technique. The printed side of the cover sheet is laminated or coated with a clear film of flexible transparent material like polyurethane, thermoplastic polyurethane, polyethylene or polyvinylchloride. This laminated or sealed printed and coated cover sheet may be fixed to different fabric, foam or of outer surface layer of an article at which printing is required. The said article may be sport's good, sport's wears, dresses, footwear, furniture covering sheets and vehicle items covers etc. The novel method of making cover sheet enables customized printing at required articles at user request with many design printing possibilities. While use of water based ink for digital printing provides an environment friendly, efficient, and durable method of printing the cover sheets of these products.