Abstract: Disclosed a method of preparing composite particles comprising a non-porous spherical particulate inorganic material deposited on a plate-like inorganic material, where refractive index of said particulate inorganic material is greater than that of said plate-like inorganic particulate material, wherein, said spherical material occupies 20 to 80% of total surface area of said plate-like material and wherein the amount of said spherical material accounts for 2 to 20 wt % of said composite particles, further wherein said plate-like inorganic material is mica and said non-porous spherical particulate inorganic material is silicone dioxide, said method comprising the steps of: (iv) silanization of said plate-like inorganic material to get a silanized material having functional groups “A”; (v) silanization of said non-porous spherical particulate inorganic material to get a silanized material having functional groups “B”, where A?B; and where said “A” and said “B” are capable of reacting with each other such that

Abstract: Disclosed a method of preparing composite particles comprising a non-porous spherical particulate inorganic material deposited on a plate-like inorganic material, where refractive index of said particulate inorganic material is greater than that of said plate-like inorganic particulate material, wherein, said spherical material occupies 20 to 80% of total surface area of said plate-like material and wherein the amount of said spherical material accounts for 2 to 20 wt % of said composite particles, further wherein said plate-like inorganic material is mica and said non-porous spherical particulate inorganic material is silicone dioxide, said method comprising the steps of: (iv) silanization of said plate-like inorganic material to get a silanized material having functional groups “A”; (v) silanization of said non-porous spherical particulate inorganic material to get a silanized material having functional groups “B”, where A?B; and where said “A” and said “B” are capable of reacting with each other such that

Abstract: A splash prevention apparatus is disclosed. The splash prevention apparatus may be placed on a surface to capture satellite droplets that would result from a liquid impinging upon the surface. The splash prevention device is designed to be particularly effective when used inside a urinal to capture impinging urine. In embodiments, a splash prevention device includes a planar base pad, which may be designed to either fit the shape of the base of a urinal or to resemble other easily recognizable shapes. In embodiments, a pillar array extends from the planar base pad and the pillars may be made of a material that will bend when impinged upon by a stream of urine. Both the base pad and pillar array of a splash prevention device may be formed from rigid or deformable material. The pillar array may be arranged in a Cartesian or non-Cartesian pattern.

Abstract: A splash prevention apparatus is disclosed. The splash prevention apparatus may be placed on a surface to capture satellite droplets that would result from a liquid impinging upon the surface. The splash prevention device is designed to be particularly effective when used inside a urinal to capture impinging urine. In embodiments, a splash prevention device includes a planar base pad, which may be designed to either fit the shape of the base of a urinal or to resemble other easily recognizable shapes. In embodiments, a pillar array extends from the planar base pad and the pillars may be made of a material that will bend when impinged upon by a stream of urine. Both the base pad and pillar array of a splash prevention device may be formed from rigid or deformable material. The pillar array may be arranged in a Cartesian or non-Cartesian pattern.