An interlayer film for laminated glass is an interlayer film for laminated glass, the interlayer film having a structure of one or two or more layers, and comprising a first layer comprising a thermoplastic resin and a silica particle, in which the silica particle has an average secondary particle size (d50) of 0.01 μm or more and 2.2 μm or less and a maximum particle size peak value of 20 μm or less.

A decorative material having a design with an excellent tactile and a visual effect. The decorative material has a texture region on a base material, the texture region is composed of: a plurality of projection regions containing a plurality of particles with a particle size of 5 μm or more and 60 μm or less and independent of each other; and a gap region between the projection regions, and the average diameter of the circumscribed circles of the projection regions, when the texture region is viewed in plan view, is 100 μm or more and 500 μm or less.

The invention is the first modification of the Patent Application with number 1009231 and involves an additional system of three levels which reinforces and improves the dynamic armor of main battle tanks using compressed ferromagnetic powder and electromagnetically reinforced. The main characteristics of the first invention (DE-1009231) for the armor system of tanks and battle vehicles was the use of compressed powder from magnetized or non-magnetized ferromagnetic pulverized materials (Fe, Ni, Co) or other similar synthetic materials that enrich or enhance the desired mechanical properties and the effect of electromagnetic amplification between two solid passive armor plates. The first level (FIG. 1, 2) concerns the placement of high temperature silicone or other material of the same mechanical properties at a suitable thickness proportional to the threat, between the outer passive solid shielding plate and the compressed ferromagnetic powder. The second level (FIG. 1, 3) concerns the modification of the layer containing the ferromagnetic powder by the distribution of the ferromagnetic powder contained in pellets or cubes or rectangular parallelepipeds or other basic geometric volumes from polymeric material with viscous elasticity or other kinds of material with same mechanical properties of thin walls or alternatively its placement in a spatial network with cubic or conical or spherical partition volumes with thin walls made of polymeric material with viscoelasticity or other material with the same mechanical properties and then compress them between the plates of solid passive armor. The third level of reinforcement (FIGS. 1, 4) was achieved by placing a layer of explosive material on the visible side facing to the ferromagnetic powder of the inner passive solid shielding plate in combination with percussion, perforation and temperature sensors. The layer of the explosive may be in a single layer or be contained as based on the inside surface of each individual area of the spatial network or similarly to separate cubes or rectangular parallelepipeds.

In an aspect a method of manufacturing an acoustic floor panel is described. The method may include: combining a binding agent with plastic flakes; passing the plastic flakes and the binding agent to a lamination machine; applying a force to the binding agent and the plastic flakes using the lamination machine to create a plastic sheet; cutting the plastic sheet; and adding an acoustic insulator to at least a first side of the plastic sheet.

A method for producing a sheet-form active ingredient carrier containing at least one water-soluble active ingredient which is stored in manufacturer-dried state and is soluble and activatable by addition of water. According to the method, the at least one active ingredient as a scatterable or pourable powder is scattered onto an inner nonwoven composed of at least partially water-soluble material and subsequently a firm assembly is produced therefrom by fusing. The assembly produced from the inner nonwoven and from the at least one active ingredient scattered on as scatter powder is positioned as a core ply between outer nonwovens, applied on both sides, composed of at least partially water-soluble material. A sheet-form active ingredient carrier having an inner layer which carries the at least one active ingredient and which is covered on both sides by textile layers composed of at least partially water-soluble outer nonwovens is also provided.

There is disclosed a collector for machine fluids, comprising a mat having a perimeter wall upstanding therefrom, the mat and/or the wall comprising oleophilic material and the wall being water-permeable, so that water falling into the collector within the perimeter wall can escape therefrom, while the machine fluids are retained by said oleophilic material and wherein the collector comprises at least one composite component for machine fluid retention comprising at least three layers wherein at least one layer comprises activated carbon and wherein this layer is secured within the composite between two layers of porous material mechanically bonded to each other, preferably via needle punching, through the activated carbon layer. The collector has high efficiency in removing PAHs and other aromatics from oil/fuel contaminated water.

A polymer pre-laid waterproof rolling material, including a polymer base material layer, a pressure-sensitive adhesive layer on the polymer base material layer, and a sand anti-sticking layer on the pressure-sensitive adhesive layer; the pressure-sensitive adhesive layer includes: 25-35 parts by mass of a styrene-isoprene-styrene block copolymer; 32-38 parts by mass of a C5 petroleum resin; 5-12 parts by mass of a 145 pentaerythritol modified rosin resin; 25-32 parts by mass of a naphthenic oil; 0.3 parts by mass of an antioxidant; and 0.5 parts by mass of a UV light stabilizer; the C5 petroleum resin has a softening point of 95-105° C. and a color number of less than 4; the naphthenic oil has a kinematic viscosity of 9-11 mm.sup.2 at 100° C. and a density of 0.8950 g/cm.sup.3-0.9100 g/cm.sup.3 at 20° C. The pressure-sensitive adhesive layer has a stronger bonding effect with sintered sand and further improves the bonding effect with concrete.

A polymer pre-laid waterproof rolling material, comprising a polymer base material layer, a pressure-sensitive adhesive layer on the polymer base material layer, and a sand anti-sticking layer on the pressure-sensitive adhesive layer; the pressure-sensitive adhesive layer includes: 25-35 parts by mass of a styrene-isoprene-styrene block copolymer; 32-38 parts by mass of a C5 petroleum resin; 5-12 parts by mass of a 145 pentaerythritol modified rosin resin; 25-32 parts by mass of a naphthenic oil; 0.3 parts by mass of an antioxidant; and 0.5 parts by mass of a UV light stabilizer; the C5 petroleum resin has a softening point of 95-105° C. and a color number of less than 4; the naphthenic oil has a kinematic viscosity of 9-11 mm.sup.2 at 100° C. and a density of 0.8950 g/cm.sup.3-0.9100 g/cm.sup.3 at 20° C. The pressure-sensitive adhesive layer has a stronger bonding effect with sintered sand and further improves the bonding effect with concrete.

Provided is an interlayer film for laminated glass capable of enhancing the rigidity of laminated glass, and lowering the haze value in high temperature environment. An interlayer film for laminated glass according to the present invention is an interlayer film for laminated glass having a one-layer or two or more-layer structure, the interlayer film includes a first layer containing a thermoplastic resin and fumed silica particles, the fumed silica particles include hydrophobic fumed silica particles, and a content of the fumed silica particles in the first layer is 4 parts by weight or more and 60 parts by weight or less per 100 parts by weight of the thermoplastic resin in the first layer.

The wet non-woven fabric for a filter of the present invention comprises vinylon, polyester, and polyvinyl alcohol, the wet non-woven fabric comprises 10 to 20% by weight of the polyvinyl alcohol, and a surface, of the wet non-woven fabric, that is located on an upstream side of air flow has a surface roughness (SMD) of not larger than 2.7 m.