Assemblies of stacked layers of materials are described. The assemblies include functional and structural layers. Functional layers include binderless ceramic materials on woven or non-woven substrates of natural, synthetic, or metallic materials. The layers of functional and structural materials may be configured to transport moisture or heat from an inner surface to an outer surface that is exposed to an ambient environment.

A flexible display device, which has a bending area and a non-bending area, includes a display panel, and a window member disposed on the display panel and including a first glass substrate, a second glass substrate disposed opposite to the second glass substrate, and a bonding layer disposed between the first glass substrate and the second glass substrate. The bonding layer includes a first bonding part overlapping the bending area and a second bonding part overlapping the non-bending area and having a modulus greater than a modulus of the first bonding part.

A crafting mat includes a container portion and a layered interior body portion. The container portion includes a top layer and a bottom layer connected to the top layer for defining a cavity. The layered interior body portion is disposed within the cavity. The layered interior body portion includes an upper layer, a lower layer and an intermediate layer disposed between the upper layer and the lower layer. A method for utilizing a crafting mat is also disclosed. A packaging assembly including packaging and a crafting mat is also disclosed.

An insulating material is used that contains a silica xerogel, and a nonwoven fabric fiber capable of generating carbon dioxide by reacting with atmospheric oxygen at a temperature of 300 C. or more. The insulating material uses oxidized acrylic as the nonwoven fabric fiber. A device uses the insulating material installed as a part of a heat insulating or a cold insulating structure, or installed between a heat-generating part and a casing.

A vapour barrier lamina, particularly for acoustic insulation of a pipe or duct, including a fiberglass moisture-proof foil layer, an acoustic insulation layer adjacent a first side of the moisture-proof layer, and a protection layer adjacent a second side of the moisture-proof layer. The vapour barrier lamina may also include a structural layer located between the moisture-proof foil layer and the acoustic insulation layer, for additional protection, and the structural layer may be a fiberglass screen.

The present invention provides articles and methods related to insulation panels made from aerogels, and specifically polyimide based aerogels. Such insulation panels have a wide variety of applications, including specifically in aerospace applications.

In some embodiments, the invention provides a multiple-pane insulating glazing unit having a between-pane space. An aerogel layer is located in the between-pane space. Further, some embodiments of the invention provide a method of manufacturing such a multiple-pane insulating glazing unit. Still further, some embodiments provide a glazing assembly comprising a frame and a multiple-pane insulating glazing unit that includes an aerogel layer and is mounted in the frame. Finally, some embodiments provide a method of handling an aerogel sheet.

A thermal insulation panel is provided for thermally insulating edifices. The thermal insulation panel contains at least one aerogel and is open to diffusion along the panel's main insulating direction.

A composite insulating material includes two or more blankets, each having a substrate for a blanket and aerogel formed on the inside and a surface of the substrate for the blanket, and a super absorbent polymer layer including super absorbent polymer particles located between the blankets.

A composite material having a function of isolating heat and combustion supporting gases is disclosed. A layered structure of the composite material includes a carbon-silicon foam layer, a first acrylic resin layer, a glass fiber cloth layer, a second acrylic resin layer, a first silicone layer, a carbon fiber layer, a second silicone layer, a quartz wool layer, and a third silicone layer. Due to the layered structure of carbon-silicon foam material, glass fiber cloth, carbon fiber and quartz wool, the composite material can provide functions such as heat insulation, combustion-supporting gases insulation, heat conduction, and anti-breakdown for protecting lithium-ion batteries from thermal runaway.