摘要:
The invention relates to an infrared radiation reflecting layer system for panes of glass and similar, the properties of said layer system being maintained even after heat treatment, for example, for bending or hardening the panes of glass. Silver is used as the infrared radiation reflecting layer. A combination of NiCrOx and Zn(Al)Ox is used as a lower-layer blocker for the silver. Also, a stoichiometric layer is also used as a pre-blocker layer. A specific work point is selected for a first dielectric layer of TiOxNy. Harmonisation of the thickness of the layers and the degrees of oxidation of NiCrOx and ZnAlOx as double lower-layer blockers and the work point of the TiOxNy-base layer are important for the temperability of the coating.
摘要:
The invention relates to a silver low-E coating for glass which is temperable and can be applied by means of sputter processes onto the glass. The individual layers of the coating are cost-effective standard materials. One embodiment of the invention for example is comprised of a glass substrate, an Si3N4 layer disposed thereon of a thickness of approximately 15 nm, a TiO2 layer of 15 nm thickness on the Si3N4 layer, a 12.5 nm thick Ag layer on the TiO2 layer, a NiCrOx layer of approximately 5 nm thickness on the Ag layer and a terminating 45 nm thick Si3N4 layer.
摘要翻译:本发明涉及一种用于玻璃的银低-E涂层,其是可回火的并且可以通过溅射工艺施加到玻璃上。 涂层的各个层是具有成本效益的标准材料。 本发明的一个实施例包括玻璃基板,厚度约为15nm的Si 3 N 4层,Si 3 N 4层上的15nm厚的TiO 2层,TiO 2层上的12.5nm厚的Ag层, 在Ag层上具有大约5nm厚度的NiCrOx层和终止的45nm厚的Si 3 N 4层。
摘要:
The invention relates to a silver low-E coating for glass which is temperable and can be applied by means of sputter processes onto the glass. The individual layers of the coating are cost-effective standard materials. One embodiment of the invention for example is comprised of a glass substrate, an Si3N4 layer disposed thereon of a thickness of approximately 15 nm, a TiO2 layer of 15 nm thickness on the Si3N4 layer, a 12.5 nm thick Ag layer on the TiO2 layer, a NiCrOx layer of approximately 5 nm thickness on the Ag layer and a terminating 45 nm thick Si3N4 layer.
摘要翻译:本发明涉及一种用于玻璃的银低-E涂层,其是可回火的并且可以通过溅射工艺施加到玻璃上。 涂层的各个层是具有成本效益的标准材料。 本发明的一个实施方案例如包括玻璃基板,其上设置有大约15nm的厚度的Si 3 N 4 N 4层,TiO 2 在Si 3 N 4 N层上具有15nm厚度的层,TiO 2层上的12.5nm厚的Ag层, 在Ag层上具有约5nm厚度的NiCrO x层,以及终止的45nm厚的Si 3 N 4 N 4层。
摘要:
The present invention refers to a method of producing a photovoltaic device having at least one semiconductor unit comprising the following steps: a cleaning of at least one surface of the semiconductor unit by etching; drying of the at least one surface of the semiconductor unit in a substantially oxygen-free or oxygen-depleted environment; and depositing of a passivation layer on the at least one surface as well as to a device for carrying out such a method and to photovoltaic devices produced by this method.
摘要:
Thermal management of film deposition processes. In one aspect, a deposition system includes a vacuum chamber defining an evacuated interior volume, a deposition source disposed within the interior volume, a substrate holder disposed within the interior volume and arranged to hold a substrate with a first surface of the substrate facing the deposition source and a second surface of the substrate disposed facing away from the deposition source, and a heat sink disposed to have a first side of the heat sink in radiative thermal contact with the second surface of the substrate held by the substrate holder, the first side of the heat sink comprising a collection of features having a longitudinal dimension that is four or more times larger than a lateral dimension between the features, the features thereby dimensioned and aligned to reflect, multiple times in succession, radiative thermal emissions of the second surface of the substrate.
摘要:
The present invention relates to a method for producing an anti-reflection and/or passivation coating for solar cells. The method may include the steps of providing a silicon wafer in a deposition chamber, pre-heating said silicon wafer to a temperature above 400° C. and deposition of a hydrogen containing anti-reflection and/or passivation coating by a sputter process. A coating apparatus is also provided for producing solar cells, especially anti-reflection and/or passivation coatings on Si wafers, comprising a first vacuum chamber, a second vacuum chamber and conveying means for transporting a substrate through said first and second vacuum chambers. The first vacuum chamber comprising at least one infrared radiation heater with a heater filament that has a temperature between 1800° C. and 3000° C. The second vacuum chamber comprising sputter means for vaporization of a target as well as a gas inlet for introducing a reactive gas including hydrogen.
摘要:
Thermal management of film deposition processes. In one aspect, a deposition system includes a vacuum chamber defining an evacuated interior volume, a deposition source disposed within the interior volume, a substrate holder disposed within the interior volume and arranged to hold a substrate with a first surface of the substrate facing the deposition source and a second surface of the substrate disposed facing away from the deposition source, and a heat sink disposed to have a first side of the heat sink in radiative thermal contact with the second surface of the substrate held by the substrate holder, the first side of the heat sink comprising a collection of features having a longitudinal dimension that is four or more times larger than a lateral dimension between the features, the features thereby dimensioned and aligned to reflect, multiple times in succession, radiative thermal emissions of the second surface of the substrate.
摘要:
In the plasma pretreatment a substrate, preferably a silicon solar cell, is transported into a pretreatment chamber (1). In this pretreatment chamber (1) is contained a gas mixture comprising at least NH3 or hydrogen. By means of a cathode (4) a plasma is generated in the pretreatment chamber (1) by means of a glow discharge. The atomic hydrogen in the plasma reacts hereby with the oxygen, which is located on the solar cell (25) in the form of an oxide layer. By modifying or removing the oxide layer, better passivation of the solar cell can be attained and, consequently, higher efficiency.