Abstract: The present invention aims to provide a method of producing a pattern-transferred product with simple steps, the method being capable of producing a pattern-transferred product having good adhesion between a transferred pattern and the transfer-receiving body. The method of producing a pattern-transferred product of the present invention includes a step of forming a transfer pattern on a dissociation layer of a transfer sheet including at least a porous layer on a support and the dissociation layer on the porous layer; a transferring step, the step being selected from a step of transferring the transfer pattern to a transfer-receiving body having an adhesive surface or a step of transferring the transfer pattern to a transfer-receiving body via an adhesive material; and a step of removing adhesion from the surface of the transfer-receiving body or from the adhesive material.

Abstract: The present invention relates to a ink-jet recording method for printing with a glycol ink which contains 60 parts by weight or more of glycol ether based on 100 parts by weight of the ink, comprising printing by ejecting the glycol ink on an ink-jet recording material, wherein the ink-jet recording material comprises a support, at least one porous ink-receptive layer which contains inorganic fine particles having an average secondary particle size of 500 nm or less and a resin binder provided on the support, and a front surface layer containing an acrylic resin emulsion provided on the ink-receptive layer.

Abstract: It is to provide a process for preparing a conductive material in which transparency and conductivity are both high, and storage stability is high, and further, in a process for preparing a conductive material utilizing ultra fine silver particles, to provide a process for preparing a conductive material having high conductivity without requiring a calcination step which has conventionally been required. A process for preparing a conductive material having a conductive pattern containing silver on a support, which process for preparing a conductive material comprises acting at least one of the following mentioned (I) to (IV) on the pattern portion containing silver provided on the support: (I) a reducing substance, (II) a water-soluble phosphorus oxo acid compound, (III) a water-soluble halogen compound, (IV) warm water of 55° C. or higher.

Abstract: It is to provide a process for preparing a conductive material in which transparency and conductivity are both high, and storage stability is high, and further, in a process for preparing a conductive material utilizing ultra fine silver particles, to provide a process for preparing a conductive material having high conductivity without requiring a calcination step which has conventionally been required. A process for preparing a conductive material having a conductive pattern containing silver on a support, which process for preparing a conductive material comprises acting at least one of the following mentioned (I) to (IV) on the pattern portion containing silver provided on the support: (I) a reducing substance, (II) a water-soluble phosphorus oxo acid compound, (III) a water-soluble halogen compound, (IV) warm water of 55° C. or higher.

Abstract: The present invention relates to a ink-jet recording method for printing with a glycol ink which contains 60 parts by weight or more of glycol ether based on 100 parts by weight of the ink, comprising printing by ejecting the glycol ink on an ink-jet recording material, wherein the ink-jet recording material comprises a support, at least one porous ink-receptive layer which contains inorganic fine particles having an average secondary particle size of 500 nm or less and a resin binder provided on the support, and a front surface layer containing an acrylic resin emulsion provided on the ink-receptive layer.

Abstract: There is disclosed a method for preparing an ink-jet recording material comprising the steps of forming at least one porous layer containing silica fine particles with an average secondary particle size of 500 nm or less, and coating a coating solution for preparing an inorganic fine particles-containing layer so that a solid content of the coated inorganic fine particles became 0.33 g/m2 or less on the porous layer.