Abstract:
Disclosed are methods, systems, machines and products, including a method for producing foil relief. The method includes placing a foil on a curable adhesive deposited on a substrate when the curable adhesive is substantially non-tacky, and applying energy to the adhesive deposited on the substrate while pressing the foil to the adhesive to cause the adhesive to become tacky and to adhere to the foil. The adhesive becomes substantially fully cured prior to completion of the pressing of the foil to the adhesive deposited on the substrate. In some embodiments, the method may further include pre-curing the curable adhesive prior to placing the foil on the adhesive to initiate the curing process of the adhesive and manipulate a viscosity level of the adhesive, with the pre-cured adhesive remaining substantially non-tacky. The curable adhesive includes one or more of, for example, a radical type adhesive and/or a cationic adhesive.
Abstract:
Disclosed are nip rollers, machines, systems, and methods, including a nip roller that includes a hollow roller to press materials, at least a portion of the hollow roller being constructed from a material configured to enable passage of energy, and at least one energy source disposed within an inner volume of the hollow roller to generate energy, at least some of the energy being directed through the at least the portion of the hollow roller constructed from the material configured to enable passage of energy to cause curing process for a curable adhesive, deposited on a substrate and pressed against a layer material, to occur.
Abstract:
A printing system comprising a load station to load one or more substrates, a first platen to receive the one or more substrates, the first platen movably connected to a first side of the system, a second platen to receive the one or more substrates, the second platen movably connected to a second side of the system opposite the first side, a platen transport system operatively connected to the load station, the platen transport system moving the first and second platens in the system, an alignment station which aligns the one or more substrates on the first and second platens, a print station which prints the one or more substrate on the first and second platens, and an unload station which unloads the one or more substrates from the first and second platens, the transport system comprising means to move the first and second platens in a horizontal direction and means to move the first and second platens in a vertical direction.
Abstract:
Disclosed are systems and methods, including a method that includes depositing a curable adhesive onto a first surface of a substrate in a pre-determined pattern, placing topping material onto the substrate with the deposited adhesive, and applying UV energy to the substrate including the deposited adhesive and the placed topping material to cause curing of the deposited adhesive.
Abstract:
Disclosed are nip rollers, machines, systems, and methods, including a nip roller that includes a hollow roller to press materials, at least a portion of the hollow roller being constructed from a material configured to enable passage of energy, and at least one energy source disposed within an inner volume of the hollow roller to generate energy, at least some of the energy being directed through the at least the portion of the hollow roller constructed from the material configured to enable passage of energy to cause curing process for a curable adhesive, deposited on a substrate and pressed against a layer material, to occur.
Abstract:
An article having a patterned metallic film on a surface thereof, and methods of producing such an article, the article including: (a) a porous substrate having a first porous surface; (b) a patterned metallic film attached to the first porous surface, including (i) a first patterned polymeric layer attached to the first porous surface; and (ii) a patterned metallic layer attached to the first patterned polymeric layer, on a distal side with respect to the first porous surface; wherein a thickness of the metal layer is at most 3 µm.
Abstract:
The subject matter discloses a printing enhancement system, comprising one or more printing enhancement modules configured to perform a printing enhancement operation on a substrate, a drum configured to carry the substrate, said drum is connected to a drum actuation mechanism configured to move the drum at a rotational movement, a processing module coupled to the drum actuation mechanism and to the one or more printing enhancement modules, wherein the processing module sends commands to the drum actuation mechanism to move the drum and sends commands to the one or more printing enhancement modules to dispense the materials according to a printing enhancement task, wherein the one or more printing enhancement modules are arranged around a circumference of the drum, wherein the rotational movement enables to bring the substrate closer to a selected printing enhancement module of the one or more printing enhancement modules.
Abstract:
A printing system comprising a load station to load one or more substrates, a first platen to receive the substrates movably connected to a first side of the system, a second platen to receive the substrates, movably connected to a second side of the system opposite the first side, a platen transport system operatively connected to the load station, the platen transport system moving the first and second platens in the system, an alignment station which aligns the one or more substrates on the first and second platens, a print station which prints the one or more substrate on the first and second platens, and an unload station which unloads the one or more substrates nom the first and second platens, the transport system comprising means to move the platens in a horizontal and vertical direction.
Abstract:
A printing system comprising a load station to load one or more substrates, a first platen to receive the substrates movably connected to a first side of the system, a second platen to receive the substrates, movably connected to a second side of the system opposite the first side, a platen transport system operatively connected to the load station, the platen transport system moving the first and second platens in the system, an alignment station which aligns the one or more substrates on the first and second platens, a print station which prints the one or more substrate on the first and second platens, and an unload station which unloads the one or more substrates nom the first and second platens, the transport system comprising means to move the platens in a horizontal and vertical direction.
Abstract:
A print-on-demand ordering system for 3D enhanced images comprising: at least one user computer running a user application comprising: means for receiving original image separation; means for receiving user selection of enhancement mode; a 2D overlay generator; and a 3D viewer module; and a back-end 3D rendering engine configured to receive the original image separations and the 2D overlay, comprising: means for generating color bitmap; means for creating 3D mesh; and means for rendering a 3D view from the color bitmap and the 3D mesh.