Abstract: The fluorescent film includes a transparent base layer and an adhesive layer bonded to the one surface of the transparent base layer, and a fluorescent powder uniformly dispersed in an adhesive of the adhesive layer.

Abstract: The invention relates to the optical films, in particular to a quantum dot film applied to a backlight module. The quantum dot film aims to solve the problem that the color saturation of a liquid crystal displayer is poor. The novel quantum dot film comprises a quantum dot layer, and an upper waterproof layer and a lower waterproof layer are arranged on the upper surface of the quantum dot layer and the lower surface of the quantum dot layer respectively. The quantum dot layer comprises, by weight, 100 parts of adhesives, 5-20 parts of silica gel particles, 1-20 parts of diffusion particles and 0.1-20 parts of quantum dots. The surface of the silica gel particles is provided with a micropore structure. The quantum dots are adsorbed in micropores of the silica gel particles or dispersed in the adhesives. The silica gel particles and the diffusion particles are dispersed in the adhesives. The quantum dot film is applied to the backlight module and has the advantages of improving the color gamut and illuminance.

Abstract: This invention relates to fluorescent films having adjustable color location and color gamut and uses of these fluorescent films. The fluorescent film comprises a transparent base layer and an adhesive layer; the adhesive layer is bond to the one surface of the transparent base layer; the adhesive layer comprises adhesive and fluorescent powder, the fluorescent powder is uniformly dispersed in the adhesive.

Abstract: The invention relates to the optical films, in particular to a quantum dot film applied to a backlight module. The quantum dot film aims to solve the problem that the color saturation of a liquid crystal displayer is poor. The novel quantum dot film comprises a quantum dot layer, and an upper waterproof layer and a lower waterproof layer are arranged on the upper surface of the quantum dot layer and the lower surface of the quantum dot layer respectively. The quantum dot layer comprises, by weight, 100 parts of adhesives, 5-20 parts of silica gel particles, 1-20 parts of diffusion particles and 0.1-20 parts of quantum dots. The surface of the silica gel particles is provided with a micropore structure. The quantum dots are adsorbed in micropores of the silica gel particles or dispersed in the adhesives. The silica gel particles and the diffusion particles are dispersed in the adhesives. The quantum dot film is applied to the backlight module and has the advantages of improving the color gamut and illuminance.

Abstract: The instant disclosure relates to a burner assembly, which includes a burner, at least one support, and a cover. The burner has a main body. A heating member and a gas intake are disposed on the top portion and side portion of the main body, respectively. The cover is disposed above the burner through the support. The cover can resist high temperature, trap heat, radiate heat, and be cleaned with ease to reduce heat loss and raise heating efficiency. Thus, the burner assembly is energy efficient.

Abstract: The instant disclosure relates to a burner assembly, which includes a burner, at least one support, and a cover. The burner has a main body. A heating member and a gas intake are disposed on the top portion and side portion of the main body, respectively. The cover is disposed above the burner through the support. The cover can resist high temperature, trap heat, radiate heat, and be cleaned with ease to reduce heat loss and raise heating efficiency. Thus, the burner assembly is energy efficient.

Abstract: In one embodiment, the film making process can comprise: introducing a plastic melt to a nip between a calendar roll and a resilient roll, passing the plastic melt between the calendar roll and the resilient roll to produce the film, and controlling a roughness of the film by actively cooling an external surface of the resilient roll. In another embodiment, the film making process can comprise: introducing a plastic melt having a melt temperature to a nip between a calendar roll and a resilient roll, passing the plastic melt between the calendar roll and the resilient roll to produce the film, and adjusting a roughness of the film at a constant production rate and a constant nip pressure.