Abstract:
Un procedimiento para producir un módulo de baterías solares que incluye varias células de baterías solares selladas mediante una resina entre un panel transparente del lado de la superficie de recepción de la luz y un panel de la cara posterior, que se caracteriza por disponer varias células de baterías solares en un intervalo establecido y conectarlas mutuamente entre sí mediante un conductor; disponer una primera lámina de resina selladora cubriendo sustancialmente la superficie entera del panel transparente del lado de la superficie de recepción de la luz entre el panel transparente del lado de la superficie de recepción de la luz y las células de baterías solares; disponer una segunda lámina de resina selladora cubriendo sustancialmente la superficie entera del panel de la cara posterior entre el panel de la cara posterior y las células de baterías solares; disponer trozos de lámina de resina selladora que tienen un grosor mayor que el valor de la suma total del grosor de las células de baterías solares y el grosor del conductor, en un espacio entre las células de baterías solares de modo que estén interpuestos entre la primera lámina de resina selladora y la segunda lámina de resina selladora; seguido de la aplicación de una carga por la presión atmosférica desde la superficie delantera y posterior descargando el aire entre el panel transparente del lado de la superficie de recepción de la luz y el panel de la cara posterior; y calentar la resina para fundirla y después enfriarla para el sellado.
Abstract:
A multi-layered glass 11 in which a glass sheet 12 and a glass sheet 13 are disposed so as to form a space 15 via a spacer 16 disposed in a peripheral edge part of the glass sheet 12 and the glass sheet 13, wherein at least one low-radiation film 14 in which a Fabry-Perot interference filter is formed is disposed on one or both surfaces of a plastic film in the space 15, whereby the space 15 is divided, the low-radiation film 14 and the spacer are each sealed by a primary seal material 19 therebetween, between the glass sheets 12, 13 and the spacer 16, the glass sheets 12, 13 are sealed by a secondary seal material 20 therebetween, on the outside of the primary seal material 19 and the spacer 16, and a reinforcing material 21 is disposed inside the secondary seal material 20. This multi-layered glass has a good appearance and excellent heat insulating properties.
Abstract:
Mist of titanium element-containing liquid particles is adhered to the surface of a glass substrate having a surface compressive stress of at most 10 MPa so as to coat the surface of the glass substrate with the liquid. Next, the liquid-coated surface is heated up to a maximum temperature of from 550 to 700° C. and then cooled under a specific condition, thereby making the resulting glass sheet have a surface compressive stress of from 20 to 250 MPa. The process gives a glass sheet coated with a titanium oxide thin film having a photocatalytic function. The resulting titanium oxide thin filmhad good adhesiveness andabrasion resistance. Since its surface has a micro-roughness, the glass sheet has neither interference color nor interference fringes and has good transparency.
Abstract:
There is provided a process of producing a solar battery module including a solar battery cell sealed by a resin between a transparent panel of the light reception surface side and a back face panel, which is characterized in that the sealing resin is made of a crosslinkable thermoplastic resin, a first sealing resin sheet substantially covering the entire surface of the transparent panel of the light reception surface side is arranged between the transparent panel of the light reception surface side and the solar battery cell, a second sealing resin sheet substantially covering the entire surface of the back face panel is arranged between the back face panel and the solar battery cell, the assembly is introduced into a sealing treatment vessel, and the sealing operation including respective steps of a step of reducing the pressure in the sealing treatment vessel at a temperature at which the thermoplastic resin is not melted (step 1); a step in which the temperature is raised to the vicinity of or higher than the melting point of the thermoplastic resin in the reduced-pressure state (step 2); a step in which the pressure in the sealing treatment vessel is raised (step 3); a step in which the temperature is raised to a temperature range where a crosslinking reaction proceeds, thereby proceeding with the crosslinking reaction (step 4); and a step in which cooling is performed (step 5) is carried out.
Abstract:
A multi-layered glass 11 in which a glass sheet 12 and a glass sheet 13 are disposed so as to form a space 15 via a spacer 16 disposed in a peripheral edge part of the glass sheet 12 and the glass sheet 13, wherein at least one low-radiation film 14 in which a Fabry-Perot interference filter is formed is disposed on one or both surfaces of a plastic film in the space 15, whereby the space 15 is divided, the low-radiation film 14 and the spacer are each sealed by a primary seal material 19 therebetween, between the glass sheets 12, 13 and the spacer 16, the glass sheets 12, 13 are sealed by a secondary seal material 20 therebetween, on the outside of the primary seal material 19 and the spacer 16, and a reinforcing material 21 is disposed inside the secondary seal material 20. This multi-layered glass has a good appearance and excellent heat insulating properties.
Abstract:
Mist of titanium element-containing liquid particles is adhered to the surface of a glass substrate having a surface compressive stress of at most 10 MPa so as to coat the surface of the glass substrate with the liquid. Next, the liquid-coated surface is heated up to a maximum temperature of from 550 to 700° C. and then cooled under a specific condition, thereby making the resulting glass sheet have a surface compressive stress of from 20 to 250 MPa. The process gives a glass sheet coated with a titanium oxide thin film having a photocatalytic function. The resulting titanium oxide thin filmhad good adhesiveness andabrasion resistance. Since its surface has a micro-roughness, the glass sheet has neither interference color nor interference fringes and has good transparency.
Abstract:
There is provided a process of producing a solar battery module including a solar battery cell sealed by a resin between a transparent panel of the light reception surface side and a back face panel, which is characterized in that the sealing resin is made of a crosslinkable thermoplastic resin, a first sealing resin sheet substantially covering the entire surface of the transparent panel of the light reception surface side is arranged between the transparent panel of the light reception surface side and the solar battery cell, a second sealing resin sheet substantially covering the entire surface of the back face panel is arranged between the back face panel and the solar battery cell, the assembly is introduced into a sealing treatment vessel, and the sealing operation including respective steps of a step of reducing the pressure in the sealing treatment vessel at a temperature at which the thermoplastic resin is not melted (step 1); a step in which the temperature is raised to the vicinity of or higher than the melting point of the thermoplastic resin in the reduced-pressure state (step 2); a step in which the pressure in the sealing treatment vessel is raised (step 3); a step in which the temperature is raised to a temperature range where a crosslinking reaction proceeds, thereby proceeding with the crosslinking reaction (step 4); and a step in which cooling is performed (step 5) is carried out.
Abstract:
Mist comprising liquid particles containing titanium is adhered to the surface of a glass sheet having a surface compressive stress of 10 MPa or less to coat the surface of the glass sheet with the liquid. The surface coated with the liquid is heated to a maximum temperature of 550 to 700°C, cooled under a specific condition to impart a surface compressive stress of 20 to 250 MPa to the surface. Thus a glass sheet coated with a titanium oxide thin film having a photocatalyst function. The titanium oxide thin film is excellent in adhesion and wear-resistance. Since the surface has a micro roughness, no interference color nor interference fringes are produced, and the transparency is favorable.
Abstract:
Mist of titanium element-containing liquid particles is adhered to the surface of a glass substrate having a surface compressive stress of at most 10 MPa so as to coat the surface of the glass substrate with the liquid. Next, the liquid-coated surface is heated up to a maximum temperature of from 550 to 700°C and then cooled under a specific condition, thereby making the resulting glass sheet have a surface compressive stress of from 20 to 250 MPa. The process gives a glass sheet coated with a titanium oxide thin film having a photocatalytic function. The resulting titanium oxide thin film had good adhesiveness and abrasion resistance. Since its surface has a micro-roughness, the glass sheet has neither interference color nor interference fringes and has good transparency.