A method of customizing an article with graphics applied using a graphic transfer assembly is disclosed. The method includes a step of creating or selecting a customized graphic to be applied to an article. The article and the customized graphic are placed within the graphic transfer assembly. A deformable membrane may apply the customized graphic to curved portions of the article.

A method and apparatus for sealing a bag made of a polymeric material by applying heat activated layers on different portions of the bag, wherein the first adhesive layer and the second adhesive layer have respective heat activation temperatures below the softening point temperature of the polymeric material; after creasing the bag along a fold line, applying heat at a temperature below the softening point temperature of the polymeric material to activate the first adhesive layer and the second adhesive layer to adhesive states after the bag has been filled with contents; and folding the bag to form an adhesive-to adhesive seal by contact between the heat activated first adhesive layer and the heat activated second adhesive layer.

A device for the production of structural components from a fiber composite material, the components being three-dimensionally arched over a large surface, including a jig having a convex mounting surface having receiving channels for the insertion of structural components, wherein the loaded jig interacts with a laminating bonding device having a corresponding shape for forming the structural component under pressure, wherein the mounting surface includes a plurality of individually elastically deformable mounting shell parts arranged adjacent to each other along at least one longitudinally extending pitch line and attached to a plurality of elastically deformable supporting frame elements extending on the interior of the shell at a right angle to the pitch line, and a plurality of actuators for deforming the mounting surface between an extended position (A) and at least one retracted position (B) to move the jig from the bonding device relative to the receiving channels without undercuts.

A method for applying a label to an electrical cable having an outermost sheath with convolutions defining alternating peaks and valleys, the method including attaching the label to the sheath. The label includes a label substrate, the label substrate includes an attaching side, the attaching side being attached through an adhesive; and the label attaches to the peaks and spans across the valleys and circumferentially wraps around the sheath.

The invention relates to a method for depositing one- or two-dimensional fiber structures in order to form a two- or three-dimensional fiber structure, in particular a fiber structure in the form of a fiber-reinforced plastic (FRP) or FRP semi-finished product, using a production machine including at least one depositing device and at least one fiber support. The one- or two-dimensional fiber structures have at least one unidirectional fiber layer. The depositing device deposits the one- or two-dimensional fiber structures onto the fiber support in a depositing direction in a controlled manner such that the fiber directions of the deposited one- or two-dimensional fiber structures assume an angle α>20°, preferably α>60°, and a maximum of α=90°, relative to the depositing direction. The one- or two-dimensional fiber structures are deposited on the fiber support in a substantially tension-free manner with respect to the fiber direction of the fiber structures.

Devices, methods and systems disclosed herein relate to the application of a protective film on a surface of an electronic device that instantly reduces air bubbles and eliminates the waiting time usually required when using a wet fluid solution. In one embodiment, a roller device may include a carriage or housing and one or more rollers coupled or integrated with the housing, configured to apply a protective material to a surface of the electronic device in a first orientation, and configured to function as a device stand in a second orientation. In addition or alternatively, a roller guide apparatus and/or a wedge may be utilized to assist the roller device in applying the protective material to the surface of the electronic device.

Disclosed is a web handling system that includes a spindle having a spindle magnetic coupling portion and a roll core configured for receiving the spindle for mounting thereon and having a roll magnetic coupling portion, wherein the spindle and roll magnetic coupling portions are configured for magnetically attracting each other to hold the roll on the spindle.

A system for applying labels to cable or conduit including at least one label and a label applicator. The label applicator including at least one guide roller, at least one tamping device comprising at least one tamping pad for applying at least one label onto the moving cable or conduit, and a guide shoe assembly. The guide shoe assembly comprises a guide shoe, the guide shoe comprises a rounding member, a plurality of springs for providing flexibility to the rounding member when the moving cable or conduit passes the at least one guide shoe, a support mount for supporting the at least one guide shoe, a plurality of pivots disposed between the rounding member and the rounding member support for adjusting the set of springs, and a fitted member for providing an anchor for the at least one guide shoe to connect with the support mount.

An apparatus and method for applying a first web to a base web in a nonlinear pattern as the base web is advanced in a machine direction in contact with a back-up roller are disclosed. The apparatus can include a guide roller and a guide roller translations system. The guide roller can be configured to define a nip with the back-up roller. The guide roller translation system can be configured to allow the guide roller to move with respect to the back-up roller to control the position of the nip to allow the first web to be applied to the base web in the non-linear pattern in the machine direction.

An optical bonding machine is provided that includes a robotic placement machine having a Z axis actuator coupled to a first end of a base portion of the robotic placement machine, the Z axis actuator capable of moving up and down a Z axis, and a pick and place plate operably connected to the Z axis actuator, and a vertically oriented adhesive application valve configured to apply an amount of adhesive onto an underside of a substrate, the underside of the substrate facing down when the amount of adhesive is applied, wherein the pick-and-place plate of the robotic placement machine manipulates the substrate within the optical bonding machine such that the substrate receives the amount of adhesive prior to being optically bonded to an other substrate; wherein a movement of the robotic placement machine is controllable over at least 3 axes.