Disclosed is DIY consumer kit for making print personalized, structurally customized covers and cases used to protect mobile electronic devices. In all embodiments, covers and cases use an encapsulated bio-based compostable resin composite fused with external layers of organic carbon neutral reclaimed industrial fiber, this composite provides an inkjet receptive sheet that may be fed through any printer for consumer customization. These composites in sheet or roll form may be scored, laser cut and micro-cut for all flat electronic devices to facilitate folding into a 3D form. Once printed, consumers may fold the 2D composite sheet, attach pre-cut layered adhesives, nano suction attachment pads and attachment clear plates for device placement on the interchangeable covers or cases. Nano rubber polymer suction pads provide locking cover attachment, attachment of the electronic device to other surfaces and enable angled viewing when the covers are folded in a stand configuration.

An insulated HVAC duct component such as a transition box includes a first insulation layer and a second, different insulation layer. The transition box includes at least four sidewalls and one of a top and a back wall, the transition box further including a first access port and a second access port, the first access port having a different cross section than the second access port, one of the access ports being spaced from a nearest sidewall by less than 2 inches. The first insulation layer is located along an inside surface of the box. The second different insulation layer overlies the first insulation layer, the second different insulation layer having an air impervious surface, wherein the combined thickness of the first insulation layer and the second different insulation layer is less than 2 inches.

A multiple-ply label roll includes end-to-end labels. Each label is operable to be adhesively applied to a substrate and includes top and bottom label plies. The bottom label ply includes an outer removable border portion defined between interior and outer ply edges and removable from the top label ply in a removal direction. The interior ply edge includes spaced apart side edges that extend along the removal direction to define a pair of spaced apart side sections of the removable portion. The interior ply edge includes a generally transverse end edge interconnecting the side edges to define an end section of the removable portion, with the end section extending between the side sections and being removed generally after the side sections when the removable portion is removed in the removal direction.

The present disclosure relates to a process for cutting and separating arbitrary shapes of thin substrates of transparent materials, particularly tailored composite fusion drawn glass sheets, and the disclosure also relates to a glass article prepared by the method. The developed laser method can be tailored for manual separation of the parts from the panel or full laser separation by thermally stressing the desired profile. The self-separation method involves the utilization of an ultra-short pulse laser that can be followed by a CO.sub.2 laser (coupled with high pressure air flow) for fully automated separation.

A method for making objects by forming a thermoformable sheet material includes forming the objects by interaction of a die assembly and a forming assembly. The method further includes, compressing and crushing a first portion of the sheet material by a crushing punch device before forming the objects and maintaining the first portion crushed during the forming operation to reduce the thickness thereof and to orientate chains of molecules that compose a structure of the sheet material at the first portion, in order to weaken the structure and the first portion. The first portion is thus easily perforable, tearable and breakable.

Processes of chamfering and/or beveling an edge of a glass substrate of arbitrary shape using lasers are described herein. Two general methods to produce chamfers on glass substrates are the first method involves cutting the edge with the desired chamfer shape utilizing an ultra-short pulse laser that is followed by mechanical polishing with a compliant polishing wheel.

A drape, such as but not limited to, a drape that can be used to cover a C arm of a medical device is provided. The drape includes material, at least one cuff and at least one adhesive strip. The material has a select property and has a select shape. The at least one cuff is formed along at least one edge of the material. The at least one cuff is configured to allow manipulation of the drape by a user. The at least one adhesive strip is configured to selectively adhere the drape to a surface to be covered by the drape.

A three-dimensional informational or display card assembly manually moveable from a box-like configuration to a flat planar card configuration. The card assembly includes score lines for folding the card assembly. The ends of the card assembly are attached to each other by an adhesive or a mechanical means to form the box-like configuration. The sections of the card assembly are printable to receive printed indicia such that in the box-like configuration an onlooker can view the indicia both on the outside and on the inside of the card assembly. Also included is a sheet assembly that contains one or more of the card assemblies to allow a user to print indicia on the card assemblies and remove them from the sheet assembly for assembling into the final product. The card assembly may be dimensioned similar to a wallet-sized business card to provide a unique and interesting alternative to traditional business cards.

A sheet packaging material includes fold lines along which the sheet packaging material is foldable to form a sealed package containing a pourable food product. The packaging material comprises at least one base layer that imparts stiffness, at least one lamination layer applied to and covering the base layer; and a removable portion which, in use, is partly detachable from a remainder of the sheet packaging material and foldable at a folding zone to free a pour opening by which to pour the food product from the package. The removable portion comprises at least one aperture formed at least in the base layer and covered by a cover material, and the removable portion is crossed by one of the fold lines defining in use an edge between two walls of the package.

A web includes a curvilinear line of weakness. The curvilinear line of weakness includes a plurality of perforations. Each of the plurality of perforations is separated by a bond area. Each of the plurality of perforations has a perforation length and each bond area has a non-perforation length.