Abstract:
A multi-layer control device or one-way valve (100) includes: a first layer (10) having at least one first opening (12) formed therein; and a second layer (20). The first and second layers are joined together such that at least one channel (24) is defined therebetween, which channel selectively permits gas flow from the first opening out of the device/valve. In operation, the valve selectively opens to permit gas flow through the channel in response to a pressure differential on opposing sides of the valve, wherein the pressure differential sufficient to open the valve (ΔΡ 0 ) dynamically varies over time. Suitably, a material is arranged in the channel which experiences a change that precipitates the dynamic variation of ΔΡ 0 .
Abstract:
A label sheet assembly is disclosed for improving the process of feeding label sheets through a printer. The label sheet assembly may include a facestock layer (20) and a liner sheet (40). The facestock layer may include an adhesive layer (30) along at least a portion of a first side and include a label surface (22) along at least a portion of the second side opposite the adhesive layer. The liner sheet layer may include at least one surface feature provided along a back side (24) of the liner sheet. In another embodiment, the facestock layer may include at least one surface feature provided along the front of the facestock layer. The surface features may create a zone of increased friction or increase tactile sensitivity along the various surfaces of the label sheet assembly to improve printer processing.
Abstract:
The present disclosure related to a flexible electronic substrate assembly and a method and system of processing solder paste onto an electrical substrate. The assembly includes a flexible substrate having a solderable medium provided along the flexible substrate. A pattern of solder paste may be cured to a portion of the solderable medium. The solderable medium may be a generally continuous construction or a patterned construction relative to the flexible substrate. The substrate may be unwound from a roll of substrate material before solder paste is deposited thereon. The flexible electric substrate assembly may be formed though a roll to roll process. Infrared heat may be applied to the substrate with the solder paste deposit as the substrate is traveling along the process direction to reflow the solder paste as the substrate is traveling along the process direction at a high rate of speed.
Abstract:
A label sheet assembly including a liner sheet, a carrier sheet, and a facestock sheet. The facestock sheet includes cut lines defining labels and cut lines defining at least a portion of a carrier strip. The carrier sheet can include cut lines defining at least a portion of the carrier strip. The carrier strip can be removed from the label sheet assembly to expose at least a portion of a layer of pressure sensitive adhesive on the labels. The label sheet assembly has a uniform thickness in an area that includes the carrier strip and the labels.
Abstract:
A labeling assembly is shown and described herein. A labeling assembly for laminating labels may include a label sheet, a laminating sheet and an alignment member. The alignment member may allow folding of the label sheet and laminating sheet. The label sheet may include a facestock sheet and a liner sheet. Labels may be pre-cut in the facestock sheet. The laminating sheet may include a laminae film sheet and a liner sheet. Protective covers may be pre-cut in the liner sheet and laminae overlays may be pre-cut in the laminae film sheet. The protective covers may be removed to expose an adhesive portion of the laminae overlay. The label sheet and the laminating sheet may be folded onto each other at the alignment member. The laminae overlay may adhere to the label to form a removable laminated label.
Abstract:
A divider assembly is shown and described herein. A divider assembly for dividing a stack of sheets, the divider assembly may include a sleeve having a first edge and an opposite second edge. A label display element inserted into the sleeve having at least one label indicia generally aligned along the first edge of the sleeve. At least one divider may include a first edge and an opposite second edge and a tab extending from the first edge. The tab may be extend beyond the first edge of the sleeve such that a user may view the at least one label indicia at a position adjacent and inward relative to the tabs.
Abstract:
A binder mechanism is shown and described herein. The binder mechanism may include a base, first and second ring bases pivotally coupled to the base, first and second ring portions fixed with the ring bases, at least one pin attached with the first and second ring bases, a slide operatively engaged with the base and operatively engaged with the at least one pin, the slide selectively and axially positionable relative to the base, and an actuator operatively engaged with the slide, where the actuator is configured to selectively and axially position the slide whereby the slide positions the at least one pin to pivot the first and second ring bases away from one another to disengage the first and second ring portions.
Abstract:
Electrically conductive thin metallic films are disclosed. The thin films can be used to form shaped or patterned electrical conductors for consumer goods and electronic applications. Various connectors are also described which can be used in conjunction with the conductors to form thin layered assemblies such as battery testers. Also disclosed are methods for producing the shaped or patterned electrical conductors.
Abstract:
The present invention discloses a cover material for an inflatable object such as an air bag. Generally, the cover surrounds the entire inflatable object. The cover has a valve to allow for vacuum compression of the inflatable object. In one embodiment the cover material is constructed out of heat shrinkable material so that the construction may be both compressed and shrunk to allow for the inflatable object to occupy less area. The present invention also discloses a method of constructing an encapsulated inflatable object utilizing the cover presently disclosed.
Abstract:
The present invention discloses a cover material for an inflatable object such as an air bag. Generally, the cover surrounds the entire inflatable object. The cover has a valve to allow for vacuum compression of the inflatable object. In one embodiment the cover material is constructed out of heat shrinkable material so that the construction may be both compressed and shrunk to allow for the inflatable object to occupy less area. The present invention also discloses a method of constructing an encapsulated inflatable object utilizing the cover presently disclosed.