Disclosed are a composition, a film, a display panel, and a display device. The composition includes, in parts by mass, 50 to 100 parts of a resin matrix; 20 to 100 parts of a multifunctional reactive monomer; 1 to 10 parts of an initiator, 5 to 30 parts of scattering particles; 100 to 500 parts of a solvent; and 1 to 10 parts of an adjuvant. Surfaces of the scattering particles are grafted with a modifying agent. The composition is carried out thermal curing and/or photocuring to prepare a film used as a diffusion layer of the display panel.

A ternary blended positive electrode material and a preparation method thereof and a battery are provided. The preparation method includes mixing a ternary material, a lithium manganese iron phosphate material and a coating material, and performing high-energy ball milling on the obtained mixture to obtain the ternary blended positive electrode material. The coating material includes a polyphosphazene intermediate.

A molding composition for a stator having high thermal conductivity is capable of replacing an insulator to improve thermal efficiency of a motor includes a first filler, a second filler having electrical conductivity, a third filler having electrical conductivity, a thermosetting resin, a curing agent, and an additive. A cooling system for improving heat dissipation performance by filling slots provided in a stator of a rotating electric device includes a stator body having a plurality of teeth and a plurality of slots, a stator coil inserted into each of the plurality of slots, and a molding material composition for a stator loaded inside of each of the plurality of slots and configured to cover the stator coil.

A conductive coating material includes a silicone resin (A), and a conductive powder (B) at a specific mass ratio, in which the conductive powder (B) includes a flake-shaped conductive powder (B1) having an average particle size of 1 to 7 m and an amorphous conductive powder (B2) having an average particle size of 1 to 6 m at a specific mass ratio, and Expression (1) below is satisfied, 100X1+X2260 (1), X1=(the average particle size of the conductive powder (B1)/a tap density of the conductive powder (B1))(a content of the conductive powder (B1) with respect to a total mass of the conductive powder (B)), X2=(the average particle size of the conductive powder (B2)/a tap density of the conductive powder (B2))(a content of the conductive powder (B2) with respect to the total mass of the conductive powder (B)).

A gypsum fiber panel (GFP) including a fiber-reinforced gypsum board core layer including gypsum, cellulose fibers embedded uniformly throughout the core layer, a siloxane level of 0 to about 1.0 wt. %, uniformly distributed within the gypsum board core layer; and a hydrophobic coating on the core layer. The hydrophobic coating includes a film forming polymer, and at least one of: a non-setting inorganic filler, having a volume mean particle diameter of about 4 microns to about 100 microns, and a hydraulic component comprising a fly ash. If the hydraulic component is present, the hydrophobic coating further includes at least one of an extended flow time retention agent. The gypsum fiber panel has no facer mat or mesh on its surface and no embedded mat or mesh.

To provide a board material processing composition allowing for production of a board material laminate that is non-combustible and is excellent in adhesion performance. In order to solve this problem, a board material processing composition inhibiting combustion of a board material due to heating, comprises: a carbonization promotion component, being inorganic, promoting carbonization of an organic component within the board material at the heating; a chain inhibition component, being inorganic, inhibiting a reaction chain to a neighboring component due to a product of endothermic decomposition generated at the heating; and binder particles, being inorganic and hydrophobic, bonding the organic component within the board material to the carbonization promotion component and the chain inhibition component, wherein the carbonization promotion component includes boric acid, the chain inhibition component includes ammonium dihydrogen phosphate, and the binder particles include silica sand.

A composition comprising a fluid, and a material dispersed in the fluid, the material made up of particles having a complex three dimensional surface area such as a sharp blade-like surface, the particles having an aspect ratio larger than 0.7 for promoting kinetic boundary layer mixing in a non-linear-viscosity zone. The composition may further include an additive dispersed in the fluid. The fluid may be a polymer material. A method of moving the fluid to disperse the material within the fluid wherein the material migrates to a boundary layer of the fluid to promote kinetic mixing of the additives within the fluid, the kinetic mixing taking place in a non-linear viscosity zone.

A coating material for a surface of an aircraft includes a polymer-based or rubber-based dielectric matrix material, and first flakes of a metallic and/or soft-magnetic, electrically conductive material that are embedded into the matrix material, wherein the first flakes are geometrically two-dimensional and have a ratio of thickness to average diameter of 1:3 or less, and wherein the first flakes are separated from one another in the matrix material and/or have an electrically non-conductive coating.

The present invention concerns a one-component water-based coating composition comprising a polymeric matrix and inorganic granular particles, which are mixed with the polymeric matrix. The polymeric matrix is a water-based dispersion and comprises at least two polymeric components, and mixed therein inorganic granular particles that have an average particle size of at least 20 m, as well as a stabilizer in the form of suspended biobased fibres. The present invention further concerns a surface coated with such a coating composition as well as a method for the preparation thereof.

A corrosion inhibiting coating composition for a metal substrate, the coating composition comprises a film forming binder and powdered aluminum alloy particles. The aluminum alloy includes silicon in the amount of 1% to 30% by weight as well as one or more elements, selected from a first group, which comprises an embrittlement enhancing element and/or an electrochemical anodic enhancing element.