A method for manufacturing a flame-resistant textile material for protective clothing is characterized in that at least one textile layer is subjected to a treatment step wherein at least one fibre component is at least partially detached from the textile layer such that air chambers (5) are formed.

The tape incudes a water vapor-permeable air and water barrier article and a pressure sensitive adhesive layer. The air and water barrier article includes a fibrous layer having first and second major surfaces and a polymeric layer on a first major surface of the fibrous layer that penetrates into the fibrous layer but leaves at least some fibers exposed on the second major surface. The pressure sensitive adhesive layer is on the polymeric layer of the air and water barrier article. The tape can retain greater than 50 percent by weight of mortar applied according to the Vertical Mortar Receptivity Evaluation. The article includes a substrate, the tape, and a composite layer comprising at least one of gypsum, lime, or cement. The composite layer is at least one of dried or cured on the second major surface of the fibrous layer. Methods of making the article are also described.

Disclosed herein are laminates that include a layer containing a metal-coated fabric. The laminate may also include a layer or layers of an organic polymeric matrix composite. In accordance with certain embodiments, the matrix composite includes a thermosetting or thermoplastic resin matrix with parallel-oriented reinforcing fibers embedded therein, interposed between the metal-coated fabric layers.

A heat insulation sheet includes a fiber sheet having spaces therein and a silica xerogel held in the spaces of the fiber sheet. The heat insulation sheet includes a thick region and a low compressible region thinner than the thick region. A compressibility of the low compressible region is equal to smaller than 5% upon having a pressure of 0.7 MPa applied to the low compressible region. This heat insulation sheet is superior in electrical insulation properties and thermal insulation properties, and secures a predetermined distance even in a case that the heat insulation sheet receives pressures from the both sides thereof, thus providing equipment with reliability.

This disclosure is directed to methods directly adhering epoxy-based, and other thermosetting surfacing films to solid thermoplastic surfaces and the structures derived or derivable from these methods. In some embodiments, the disclosure is also directed to composite structures comprising a thermoplastic substrate directly bonded to a thermoset(ting) surfacing film; wherein the direct bonding defines an interface between a thermoplastic surface of the thermoplastic substrate and a first surface of the thermoset(ting) surfacing film.

A non-fibrous film has a non-weakened portion and a weakened portion having at least one mechanical property having a value that is lower than the value of the mechanical property of the non-weakened portion. The film has an optical characteristic including a clarity of at least 75 percent.

A display device includes a display panel; a supporter disposed on a surface of the display panel; and an adhesive layer disposed between the supporter and the display panel, wherein the supporter includes metal layers spaced apart from each other; and a cushion layer surrounding the metal layers, the adhesive layer includes a first area overlapping the metal layers in a vertical direction to the display panel; and a second area not overlapping the metal layers in the vertical direction to the display panel, and a modulus of the second area of the adhesive layer is larger than a modulus of the first area of the adhesive layer.

A system for additive manufacturing of a three-dimensional object, comprising: a controller for identifying a set of planar cross-sectional shapes of the three-dimensional object, the set extending in a sequence from a first end of the three-dimensional object to a second end of the three-dimensional object; a three-dimensional scanner, associated with the controller, configured to scan a prototype of the three-dimensional object to generate a computer-aided design model; at least one cutting station for cutting at least one barbed metal sheet into a plurality of individual planar barbed metal pieces corresponding to the cross-sectional shapes; and for cutting at least one substrate sheet into a plurality of individual planar substrate pieces corresponding to the cross-sectional shapes, wherein the at least one substrate is penetrable by the barbs; and a binding station for receiving and pressing the individual barbed metal pieces and the individual substrate pieces together.

Unit dose packs and methods of producing and using the same are provided. In accordance with one embodiment, a unit dose pack includes a cover that is non-water soluble, and a wash composition encapsulated within the cover to form the unit dose pack. The wash composition is a solid. The cover is stitched together with a thread to form a pouch around the wash composition, and the thread is water soluble.

The thermopaque glass is a semitransparent structure. The thermopaque glass is configured for use as the transparent material used in a window into a building. The thermopaque glass is a composite laminar structure. The thermopaque glass inhibits the passage of electromagnetic through the window into the building by reflecting a portion of the electromagnetic radiation striking the window away from the building. The thermopaque glass comprises a plurality of lamina and a plurality of interlayered resins. The plurality of interlayered resins assemble the plurality of lamina into the composite structure of the thermopaque glass. Each of the plurality of lamina is a plate selected from the group consisting of a transparent plate and a semitransparent plate.