Fabrics made for apparel, tents, sleeping bags and the like, in various composites, constructed such that a combination of substrate layers and insulation layers is configured to provide improved thermal insulation. The fabric composites are constructed to form a radiant barrier against heat loss via radiation and via conduction from a body.

A transparent conductive film (10) that has a substrate (14) having a surface (14a, 14b), a nanowire layer (12, 12a) over one or more portions of the surface (14a, 14b) of the substrate (14), and a conductive layer (16, 16a) on the portions comprising the nanowire layer (12, 12a), the conductive layer (16, 16a) comprising carbon nanotubes (CNT) and a binder.

Provided is a joint manufacturing method including: a step A of preparing a laminate in which two objects to be joined are temporarily adhered with a heat-joining sheet including a pre-sintering layer interposed between the two objects to be joined; a step B of increasing a temperature of the laminate from a temperature equal to or lower than a first temperature defined below to a second temperature; and a step C of holding the temperature of the laminate in a predetermined range after the step B, in which the laminate is pressurized during at least a part of the step B and at least a part of the step C. The first temperature is a temperature at which an organic component contained in the pre-sintering layer is decreased by 10% by weight when the pre-sintering layer is subjected to thermogravimetric measurement.

A member includes a base material and an electroless plating layer. The base material includes an elastic section that includes a sulfur-containing elastic body. The electroless plating layer is provided on the elastic section of the base material. The base material includes the elastic section, and the electroless plating layer is positioned on one surface of the elastic section. The elastic section has a portion that is elastically deformable together with the electroless plating layer.

A fabric includes a first flexible fabric layer, having fabric emissivity properties in a visible radiation range that are selected so as to mimic ambient emissivity properties of a deployment environment of the fabric, and at least one second flexible fabric layer, which is joined to the first flexible fabric layer, and which is configured to scatter long-wave radiation that is incident on the fabric. The first and second flexible fabric layers are perforated by a non-uniform pattern of perforations extending over at least a part of the fabric.

Fabrics made for apparel, tents, sleeping bags and the like, in various composites, constructed such that a combination of substrate layers and insulation layers is configured to provide improved thermal insulation. The fabric composites are constructed to form a radiant barrier against heat loss via radiation and via conduction from a body.

A material includes one or more transparent substrates including two main surfaces, of which one of the surfaces of one of the substrates is coated with a functional coating capable of controlling solar radiation, the material including an absorbent layer for colorimetric adjustment of which the average absorption peak is centered between 500 and 555 nm and of which the full width at half maximum is less than 50 nm. The solar glazing has an improved aesthetic appearance without overly affecting thermal performance.

A material includes a transparent substrate coated with a functional coating, including, consecutively from the substrate, an alternation of three silver-based functional metal layers and four dielectric coatings (Di1, Di2, Di3 and Di4) which each have an optical thickness Eo1, Eo2, Eo3 and Eo4, each dielectric coating comprising at least one dielectric layer so that each functional metal layer is arranged between two dielectric coatings. The dielectric coating Di1 has an optical thickness Eo1 of less than 80 nm. The dielectric coating Di2 has an optical thickness Eo2 of less than 160 nm. The dielectric coating Di3 has an optical thickness Eo3 of less than 160 nm. The dielectric coating Di4 has an optical thickness Eo4 of less than 60 nm. Eo2/Eo1 is greater than 1.70 including this value. The thickness of the second functional metal layer is less than 12 nm. The thickness ratio Ag3/Ag1 is ?1.20.

A method for producing a curved laminated glazing, for a windscreen or roof of a motor vehicle includes providing a first glass sheet, coated on at least one part of one of its faces with a stack of thin layers, depositing, on one part of the surface of the stack of thin layers in a zone to be cleared, a washable dissolving layer, a pre-firing after which the stack of thin layers located under the washable dissolving layer is dissolved by the washable dissolving layer, creating a cleared zone, the removal of the washable dissolving layer by washing, the deposit, at least on one part of the cleared zone, of an opaque mineral layer, the curving of the first glass sheet and of an additional glass sheet, together or separately, and the laminating of the first glass sheet with an additional glass sheet using a lamination interlayer.

A metal-coated nonwoven fabric with an adhesive layer capable of enhancing adhesion is provided. The metal-coated nonwoven fabric with an adhesive layer according to the present invention includes a metal-coated nonwoven fabric and an adhesive layer disposed on one surface side of the metal-coated nonwoven fabric, the metal-coated nonwoven fabric including a nonwoven fabric and a metal portion coating the surface of a fiber in the nonwoven fabric, an average thickness of the metal portion being 2 m or less, an average thickness of the metal-coated nonwoven fabric being 25 m or less, an open area ratio of the metal-coated nonwoven fabric being 1% or more and 50% or less.