An insulating device including an outer shell, an inner liner forming a storage compartment, an insulating layer positioned in between the outer shell and the inner liner, wherein the insulating layer provides insulation for the storage compartment, and an opening configured to allow access to the storage compartment.

A repair for a structural element made from a composite material includes a bracket defining a first surface and a second surface. The first surface is adapted for facing the structural element. A chamfer is located on a first end of the bracket. An angle is defined between a plane of the chamfer and a plane of the first surface, the first surface of the bracket being adapted to be disposed adjacent to a side of the structural element. The repair also includes a sealant material between the bracket and the structural element, where the sealant material occupies a space established between the chamfer and the structural element.

A binding machine comprising: —a feeding device for feeding a binding element (3) in the form of a wire or strap in a loop around one or more objects to be bound and subsequently retracting the binding element to draw it tightly around said objects; and—a laser welding device for forming a welded joint between a section at the leading end of the binding element and an adjoining section at the trailing end of the part (3a) of the binding element fed in a loop around said objects to thereby secure this part of the binding element in a loop around the objects. The laser welding device is configured to cut off the binding element at said trailing end to thereby release said part (3a) of the binding element from the remaining part (3b) of the binding element.

The present invention is a structure element comprising a body made of composite material and at least one connection member which is one-piece with said body and which is for providing connection to another structure element with the same characteristic. Accordingly, the composite material is BMC material using bulk material, and the bulk material comprises at least one type of fiber between 15% and 25% for providing resistance, at least one type of mineral powder between 40% and 50% as filling material, and at least one type of resin between 20% and 30% as the binding item which binds fiber to filling material.

A method is provided of producing and assembling a multi-part surface-mountable physical-activity lamina for use in aiding or supplementing a physical-activity in a physical-activity environment. There is a step a] of providing a first graphic design model of the lamina; and b] segmenting the first graphic design model into a plurality of graphic design model portions. A step c] follows of arranging the graphic design model portions into a more compact second graphic design defining a reduced surface area; and then d] the second graphic design being applied to a lamina substrate having another surface area. The lamina substrate is then separated into lamina elements corresponding to the graphic design model portions, followed by a step e] of assembling the lamina elements onto a mounting surface at a physical-activity environment to form the surface-mountable physical-activity lamina.

Flange connection for connecting two pipeline ends made of plastics material and method for assembly, containing two mutually opposing pipe ends (2) made of plastics material, wherein the pipe ends each have a prewelding neck, two loose type flanges, wherein a loose type flange is arranged at each pipe end, wherein the loose type flanges have holes for mutual clamping, clamping means, wherein the clamping means are arranged in the holes and serve to mutually pull together the loose type flanges and the pipeline ends, and a sealing element, wherein the sealing element comprises a conductive plastics material and exclusively one material.

A molded part includes a plurality of surfaces and an embossment extending from one of the plurality of surfaces. The embossment includes a body and a bore extending through a central portion of the body. The embossment further includes a first pocket extending through a sidewall of the body and into the bore and a second pocket extending through an opposite sidewall of the body and into the bore. The first pocket and the second pocket each define inwardly tapered walls. The first pocket and the second pocket are spaced axially along the body and are diametrically opposed.

An insulating device can include an aperture having a waterproof closure which allows access to the chamber within the insulating device. The closure can help prevent any fluid leakage into and out of the insulating device if the insulating device is overturned or in any configuration other than upright. The closure may also prevent any fluid from permeating into the chamber if the insulating device is exposed to precipitation, other fluid, or submersed under water. This construction results in an insulating chamber that is substantially impervious to water and other liquids when the closure is sealed.

The embodiments described herein provide for lightning protection in aircrafts constructed with Carbon Fiber Reinforced Plastic (CFRP). In one embodiment, the apparatus includes a first Carbon Fiber Reinforced Plastic (CFRP) panel, a second CFRP panel that overlaps with the first CFRP panel in a vertical direction, and a fastener to join the first CFRP panel with the second CFRP panel, the fastener extending in the vertical direction in an area where the first CFRP panel and the second CFRP panel overlap. The apparatus further includes a plurality of electrically conductive pins in each of the first CFRP panel and the second CFRP panel, wherein the pins extend in the vertical direction proximate to the fastener to electrically connect the first CFRP panel and the second CFRP panel in the area where the first CFRP panel and the second CFRP panel overlap.

An insulating device can include an aperture having a waterproof closure which allows access to the chamber within the insulating device. The closure can help prevent any fluid leakage into and out of the insulating device if the insulating device is overturned or in any configuration other than upright. The closure may also prevent any fluid from permeating into the chamber if the insulating device is exposed to precipitation, other fluid, or submersed under water. This construction results in an insulating chamber that is substantially impervious to water and other liquids when the closure is sealed.