A foam printing method includes producing and programming a design being formed on a substrate using a computer program, forming the design on a plate, removing a part of a surface of the substrate along the design, combining the substrate and the plate to coincide a designed portion formed on the plate and a removed portion of the substrate, printing a foam constituting the design on the plate combined with the substrate, separating the plate from the substrate and drying the substrate, and applying a pressure to the foam passing the plate to be set on the substrate to be foamed. The foam passes the designed portion of the plate to be set on the removed portion of the substrate during the printing.

A foil transfer method of performing foil transfer onto a surface of a transfer subject includes preparing a foil transfer tool including a light output portion, preparing the transfer subject and a transfer foil, stacking the transfer foil and a light absorbing film with optical absorptivity on a surface, of the transfer subject, on which the foil transfer is to be performed, to produce a stack body, and while moving either one of the stack body and the foil transfer tool with respect to the other, putting the foil transfer tool into contact with a surface of the stack body at which the light absorbing film is provided and outputting light from the light output portion.

A thermal transfer apparatus includes a controller to control a transfer tool and a pressing body conveyor. The controller controls the pressing body conveyor to press a predetermined region of a transfer object, and controls the transfer tool and the pressing body conveyor to press at least a portion of thermal transfer foil placed on the predetermined region pressed by the transfer tool and a light absorption film having a light absorption property and placed on the thermal transfer foil and to apply light to the light absorption film.

A transfer method is provided and includes a disposing step of disposing a transfer sheet and a medium in an inside of a sealed space formed by using a pressure welding sheet having flexibility in at least one part; a pressure welding step of suctioning the inside of the sealed space by a negative pressure and pressure welding the pressure welding sheet and the medium by the negative pressure to closely attach the transfer sheet and the medium; an irradiating step of softening an adhesive layer of the transfer sheet by irradiation of a light ray in a state in which the transfer sheet is closely attached to the medium by the pressure welding sheet and adhering the adhesive layer to the medium by a pressure welding force from the pressure welding sheet; and a peeling step of peeling off the transfer sheet from the medium after the irradiating step.

A golden effect heat transfer label includes a carrier and a golden effect design layer on the carrier. The golden effect design layer is formulated from an ink having a golden effect pigment present in a concentration of about 5 percent to about 35 percent by weight of the ink. The golden effect heat transfer label is transferred from the carrier to a target object as a golden effect feature and the golden effect feature exhibits a robust golden effect on the target object. The golden effect feature exhibits no adhesion failure and no visual change after being subjected to standard testing. The golden effect heat transfer label can be transferred onto target objects including apparel items, plastics, metals and carbon fiber objects.

Proposed are a pigment-type hot stamping foil, a method of manufacturing the same, and a hot-stamped member including the pigment-type hot stamping foil. The pigment-type hot stamping foil includes a carrier film layer, a release layer formed on a lower surface of the carrier film layer, a pigment-type colored coloring layer formed on a lower surface of the release layer, a pigment-type white coloring layer formed on a lower surface of the pigment-type colored coloring layer, a primer layer formed on a lower surface of the pigment-type white coloring layer, a metal deposition layer formed on a lower surface of the primer layer, and an adhesive layer formed on a surface of the metal deposition layer.

The invention is directed to a pigment transfer sheet (1) suitable for transferring an image to a textile substrate (2), said transfer sheet comprising a base layer and a transfer layer, said transfer layer being present in an amount of 5 to 20 g/m.sup.2, preferably in an amount of 8 to 15 g/m.sup.2 such as about 12 g/m.sup.2. A further aspect of the present invention is a process wherein this transfer sheet is used for transferring an image from a pigment transfer sheet to a textile substrate to provide a textile product carrying said image, said process comprising a transfer step comprising applying a surface pressure of at least 0.4 bar and heat to the superimposed contacted transfer sheet and textile substrate. Yet another aspect of the invention is a textile product (3) obtainable by the sheet and the process, which textile product has favorable properties like good hand and color fastnesses.

A transfer film (1), the use of a transfer film (1), a method for producing a transfer film (1), a method for producing a transfer film (1), a method for decorating a plastic article (10), and a plastic article (10). The transfer film (1), for application to a base body (9), here includes a carrier ply (2) and a transfer ply (3) and a first layer (4), wherein the surface of the first layer (4) can be touched by a person at least in areas after the application to the base body (9), and wherein the first layer (4) contains at least one substance with an antimicrobial action.

A heat transfer label is disclosed. The heat transfer label comprises a special heat stable release which strongly adheres to the carrier, offers a highly ink and adhesive wettable surface, stays intact under heat transfer bonding conditions, releases easily, leaves no contamination on the transfer or fabric, and enables durable replication of the release surface finish onto the resultant transfers.

The present subject matter describes imprinting a logo on a substrate. In an example implementation, a first layer is coated on the substrate to level surface irregularities on the substrate. The first layer is a thermally cured layer. A hot foil imprint of the logo is formed on the first layer. A second layer is coated on the hot foil imprint, where the second layer is a thermally cured transparent layer. A third layer is coated on the second layer, where the third layer is an ultra-violet (UV) cured transparent layer.