Abstract: Provided in the present invention is a vacuum glass, comprising: a plurality of plate glasses arranged to be spaced apart at fixed distances; a sealing material provided along edges of the plate glasses to seal and adhere to the plate glasses; and a plurality of pillars arranged between the plate glasses to maintain the distances between the plate glasses. The plurality of pillars are arranged at different arrangement distances in vertical and horizontal directions. Thus, the thermal insulation performance of the vacuum glass may be improved, and stress applied to the vacuum glass may be reduced by the pillars to secure the safety of a product.

Abstract: An anti-fog heat-generating glass system, comprising: a heat-generating glass unit separating an indoor and outdoor area, including general glass and heat-generating glass; a glass surface temperature-sensing unit arranged on indoor side heat-generating glass for sensing glass surface temperature; a control unit which compares the glass surface temperature and a fogging point of the indoor area to control heat-generation of the heat-generating glass unit; and a power-source unit supplying power to the heat-generating glass system to operate the system.

Abstract: A vacuum glass panel having a getter filler that includes a plurality of fillers having getter functions without the need for a separate getter, thus reducing costs and enhancing durability, and to a method of manufacturing same. The vacuum glass panel according to the present invention includes: an upper glass plate; a lower glass plate facing the upper glass plate; a sealing portion that is formed along the edges of the upper and lower glass plates and seals the upper and lower glass plates so that a vacuum layer is formed in the space between the upper and lower glass plates; and at least one getter filler that is placed in the vacuum layer, keeps the gap between the upper and lower glass plates constant, and suctions gas from the vacuum layer.

Abstract: Provided in the present invention is a vacuum glass, comprising: a plurality of plate glasses arranged to be spaced apart at fixed distances; a sealing material provided along edges of the plate glasses to seal and adhere to the plate glasses; and a plurality of pillars arranged between the plate glasses to maintain the distances between the plate glasses. The plurality of pillars are arranged at different arrangement distances in vertical and horizontal directions. Thus, the thermal insulation performance of the vacuum glass may be improved, and stress applied to the vacuum glass may be reduced by the pillars to secure the safety of a product.

Abstract: Provided is a heat-strengthened vacuum glass, comprising: a plurality of sheet glasses spaced apart by a predetermined interval; a plurality of spacers interposed between the sheet glasses to maintain the intervals between the sheet glasses; and a sealing material arranged along edges of the sheet glasses to seal and bond the sheet glasses. The heat-strengthened vacuum glass of the present invention has a surface compressive stress of 20 Mpa to 55 Mpa after the seal bonding of the sheet glasses, thus ensuring high thermal resistance, high strength, and, when damaged, high stability.

Abstract: A vacuum glass panel includes patterned spacers formed by a print system using ceramic ink to enable the shapes of the patterned spacers and spacing between the patterned spacers to be uniformly controlled and to improve the speed of forming patterned spacers. The vacuum glass panel comprises: an upper glass sheet; a lower glass sheet facing the upper glass sheet; a sealing material arranged along the edges of the upper glass sheet and lower glass sheet to seal the upper glass sheet and the lower glass sheet such that a vacuum layer is formed in the space between the upper glass sheet and the lower glass sheet; and one or more patterned spacers inserted into the vacuum layer between the upper glass sheet and the lower glass sheet so as to maintain a gap having a predetermined thickness between the upper glass sheet and the lower glass sheet.

Abstract: Provided is a heat control device of a heat generating glass, which supplies a sine wave signal for controlling temperature of the heat generating glass according to a size of the heat generating glass, so that the sine wave signal is input at a point of time when the current of the sine wave signal is zero and also the supply of the sine wave signal is stopped at the point of time when the current of the sine wave signal is zero.

Abstract: An anti-fog heat-generating glass system, comprising: a heat-generating glass unit separating an indoor and outdoor area, including general glass and heat-generating glass; a glass surface temperature-sensing unit arranged on indoor side heat-generating glass for sensing glass surface temperature; a control unit which compares the glass surface temperature and a fogging point of the indoor area to control heat-generation of the heat-generating glass unit; and a power-source unit supplying power to the heat-generating glass system to operate the system.

Abstract: The present invention relates to a panel installation set used to finish the surface of a building, and to a method of installing panels using the panel installation set. The panel installation set comprises a support member (10) having a coupling projection (15) and a panel (20) having a coupling groove (25). The installation method includes the steps of fixing a support member (10) having a coupling projection to a building and assembling a panel (20) having a coupling groove (25) to the support member (10) in a manner such that the coupling projection (15) is inserted into the coupling groove (25). According to the present invention, since panels are assembled in a sliding manner, the panel installation set has the advantage of enabling easy and simple assembly of the panels, and reducing installation cost by reducing the use of subsidiary material.