Abstract:
The present invention generally provides improved methods of fabricating polymeric microfluidic devices that incorporate microscale fluidic structures, whereby the fabrication process does not substantially distort or deform such structures. The methods of the invention generally provide enhanced bonding processes for mating and bonding substrate layers to define the microscale channel networks therebetween.
Abstract:
A label sheet label sheet includes a transparent film support material, a pressure-sensitive adhesive layer, a release layer, a printable layer, one or more first detachment lines, and one or more second detachment lines. The transparent film support material has an inner surface and an outer surface. The pressure-sensitive adhesive layer is disposed over the transparent film support material inner surface. The release layer is disposed over the pressure-sensitive adhesive layer. The printable layer is disposed over the pressure-sensitive adhesive layer, and includes an inner surface facing the release layer and an opposing outer surface. The outer surface exhibits a roughness of 4 to 50 μm (DIN 4768). The one or more first detachment lines extend from the printable layer outer surface and through the printable layer and the release layer, to thereby form a first sub-region. The one or more second detachment lines extend from the support material outer surface and through the support material and the pressure-sensitive adhesive layer, to thereby form a second sub-region that is larger than the first sub-region.
Abstract:
A device such as an MEMS device is fabricated by cutting a laminate of a semiconductor substrate and a glass substrate. Grooves are formed in the glass substrate, and the semiconductor substrate and the glass substrate are laminated together such that the groove faces the semiconductor substrate. The laminated substrates are irradiated with a laser along the groove from the side of the glass substrate. In this way, the laminate is cut into elements.
Abstract:
The invention concerns a process and an apparatus for the production of a partially metallised film element and a partially metallised film element produced by means of the process. A digital data set (332) which defines the graphical shape of the partial metallisation is produced. A tool path and control data for actuation of a tool (38) are calculated from the digital data set (332). The tool (38) and a single-layer or multi-layer film body (30) are moved relative to each other in accordance with the tool path. The tool (38), controlled by the control data, produces partial digital demetallisation of a metal layer (31), in particular by applying an etching agent or an etching resist or by erosion of the metal layer (31).
Abstract:
The present invention includes a continuous process for manufacturing packaging laminates adapted for easy tearing comprising the steps of providing a first and a second flexible web, applying a fluid adhesive to the first flexible web, drying the fluid adhesive, or optionally, curing the fluid adhesive, slitting one of the first and second flexible webs to form a plurality of parallel strips of at least of one the first and said second webs, and laminating the first and second flexible webs together thereby forming a laminate a plurality of parallel strips. The present invention also includes laminates form by this process.
Abstract:
A process and an apparatus for producing a laminate, comprise at least one polymer film with information and at least one substrate, for further processing for forgery-proof documents, in which, in the first processing station, a supporting film is delaminated on a first side of the polymer film, after which a substrate is laminated on by an adhesive and subsequently exposed to a crosslinking-active radiation, and in which a laminate led out from the first processing station is fed to a second processing station, and the supporting film is delaminated on a second side of the laminate, after which a substrate is laminated on by an adhesive and subsequently exposed to a crosslinking-active radiation.
Abstract:
Absorbent article such as a diaper and an incontinence guard provided with a pair of belt members (10a, 10b) intended to be fastened together around the waist of the wearer by fastening means (11,12) and where said front portion (5), is provided with fasteners (8,9) intended to be fastened to the belt members (10a, 10b), in such a way that the article will assume a pantlike shape, where the belt members (10a, 10b) form a part of the waist portions of the pant. The belt members (10a, 10b) include a flexible laminate of at least three layers of fibrous material bonded together in a bonding pattern having a bonding area of no more than 10%. The first outer layer (14) and the middle layer (15) have a creped structure of a plurality of raised areas (14a;15a) separated by a plurality of non-raised areas formed by the bonding sites (13) of the bonding pattern, wherein the creped structure of the first outer layer (14) is more distinct with a greater height of the raised areas (14a) as compared to the middle layer (15).
Abstract:
A packaged confectionery product is provided. The packaged confectionery product includes a confectionery product and a package material formed around the confectionery product. The package material, such as a laminate, includes one or more scored regions allowing ready access of the confectionery product, such as single-handed access of the confectionery product wherein an underlayer of the packaging material including, for example, a metal layer, remains unscored to promote product integrity.
Abstract:
A static cling toy assembly which can be inserted into a food item and method of making includes a static cling substrate having a first side and a second side. At least one cut out adheres to the first side of the substrate by means of static cling. A peelable protector sheet is releasably fixed over the at least one cut out, wherein the protector sheet encapsulates the at least one cut out and protects it from contamination.
Abstract:
One embodiment is directed to a print media coating device that includes first and second web supplies, first and second web take-ups, and a fuser defining a print media path therethrough. The first web supply and the first web take-up are positioned on one side of the media path and the second web supply and the second web take-up are positioned on the other side of the media path opposite the first web supply and the first web take-up. A first coating material web runs from the first web supply, along the media path through the fuser, to the first web take-up and a second coating material web runs from the second web supply, along the media path through the fuser, to the second web take-up. A first peel bar is positioned immediately adjacent to the print media path, downstream from the fuser on the first side of the media path. A second peel bar is positioned immediately adjacent to the print media path downstream from the fuser and downstream from the first peel bar.