The vehicle interior material of the present invention has a multilayer structure, the material including: a hard core layer having a hollow portion inside; a design layer provided on one surface side of the core layer; a first film layer provided between the core layer and the design layer; and a second film layer provided on a surface of the core layer on a side opposite to the first film layer, wherein a strain ca is smaller than a strain εb, the strain εa being a strain on a surface of a structure on a side of the first film layer, the structure having the first film layer, the core layer, and the second film layer, and the strain εb being a strain on a surface of the structure on a side of the second film layer.

The present disclosure comprises a multi-layer tube including an inner layer comprising a thermoplastic material, an intermediate layer comprising high density polyethylene (HDPE); and an outer layer comprising a thermoplastic material. The HDPE intermediate layer is sandwiched between the outer layer and the inner layer of a thermoplastic material. The thermoplastic material is selected to facilitate extrusion and provide a low cost, robust multi-layer tube for any low temperature glycol cooling system applications.

Embodiments of a laminate structure for use in flexible packaging comprise a sealant film comprising ethylene-based polymer, and a multilayer polyethylene print film laminated to the sealant film. The print film comprises at least 3 layers and has an overall thickness from 15 to 30 μm. The print film comprises a middle layer, an inner layer disposed between sealant film and the middle layer, and an outer layer, wherein the middle layer comprises at least 90% by weight high density polyethylene (HDPE) polymer having a density from 0.950 to 0.965 g/cc. The inner layer and the outer layer comprise linear low density polyethylene (LLDPE) having a density from 0.925 to 0.965 g/cc. The laminate structure yields desired optical and mechanical properties coupled with recyclability and improved printing efficiency, while maintaining these low thicknesses for the print film.

Provided is a thermoplastic resin laminate suitable for optical applications of transparent substrate materials and protective materials. The thermoplastic resin laminate includes a first layer including an amorphous polyester resin (A) as the main component, and a second layer including a (meth)acrylic resin (B) as the main component on the first layer.

A multilayer film that includes at least a first polymeric layer comprising a polyolefin-based polymer and a second polymeric layer comprising a blend of a polar polymer and a silicon (Si) containing material comprising a silane having at least one alkyl group having at least 6 carbon atoms (C6) is disclosed. Methods of using and making the multilayer film is also disclosed.

According to an embodiment, provided is a molding resin sheet including: a base material layer containing a polycarbonate resin (a1); a high-hardness resin layer containing a high-hardness resin; and a hard coat layer, wherein the high-hardness resin layer is located between the base material layer and the hard coat layer, the high-hardness resin has a pencil hardness of HB or more, and the glass transition points of the polycarbonate resin (a1) and the high-hardness resin satisfy the following relationship: −10° C.≤(the glass transition point of the high-hardness resin)−(the glass transition point of the polycarbonate resin (a1))≤40° C.

The present disclosure describes thermoformable sheets capable of retaining an absorbing stain, pigmented sealer or clear sealer. The unique resin binder formulations and products include porosity-promoting agents that result in the resin binder having a porous surface capable of being stained, while still having the favorable properties of traditional Thermofoil products. The methods of the invention produce a Thermofoil product that can be stained with a variety of stains and colorants after manufacturing to suit the individual builder's or homeowner's preference.

A multilayer film (10) for a container includes a surface layer (11) made of a polymethylpentene resin, an adhesive layer (12) made of a thermoplastic elastomer and adjacent to the surface layer, and a heat seal layer (13) laminated on the surface layer through the adhesive layer.

A procedure is presented for making a continuous tape of at least one metallic material of malleable/ductile metallic materials. The process includes passing a continuous strip of the metallic material between a rigid cylinder and a presser in elastically compressible material, held adherent to the rigid cylinder and at the same time subjecting the continuous tape, in at least a portion of its passage between the rigid roller and the presser and a reduction in the speed of its surface in contact with the presser with respect to the speed of its surface in contact with the rigid cylinder the surfaces of the outgoing tape being always parallel to each other and the final width of the tape corresponding to the initial width.

A laminate includes a polycarbonate substrate and an ultraviolet hard coat film disposed on the polycarbonate substrate. The ultraviolet hard coat film may include a polyethylene terephthalate (PET) layer, an adhesive interposed between the PET layer and the polycarbonate substrate, and an exterior hard coat disposed on the PET layer opposite the polycarbonate substrate. The exterior hard coat may include UV stabilizers. The laminate may include additional ultraviolet hard coat films stacked on the ultraviolet hard coat film. The laminate may be thermoformed into the shape of a curved vehicle windshield.