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    • 7. 发明申请
    • Combustion deposition of metal oxide coatings deposited via infrared burners
    • 通过红外线燃烧器沉积的金属氧化物涂层的燃烧沉积
    • US20090155493A1
    • 2009-06-18
    • US12000784
    • 2007-12-17
    • Mark A. LewisDavid D. McLeanMaximo Frati
    • Mark A. LewisDavid D. McLeanMaximo Frati
    • C23C8/00
    • C23C16/402C03C17/002C03C17/007C03C2217/732C03C2218/15C23C16/453F23D14/125F23D14/14F23D91/02
    • Certain example embodiments of this invention relate to a method of forming a coating on a glass substrate using combustion deposition. A glass substrate having at least one surface to be coated is provided. A reagent is selected. A precursor to be combusted with the reagent is introduced. Using at least one infrared burner, at least a portion of the reagent and the precursor are combusted to form a combusted material, with the combusted material including non-vaporized material. The glass substrate is provided in an area so that the glass substrate is heated sufficiently to allow the combusted material to form the coating, directly or indirectly, on the glass substrate. The coating may be substantially uniform. In certain example embodiments, a silicon oxide coating may be deposited, which increases visible transmission of the glass substrate by at least about 1.7%.
    • 本发明的某些示例性实施方案涉及使用燃烧沉积在玻璃基底上形成涂层的方法。 提供具有至少一个待涂覆表面的玻璃基板。 选择试剂。 引入与试剂一起燃烧的前体。 使用至少一个红外线燃烧器,至少一部分试剂和前体被燃烧以形成燃烧的材料,燃烧的材料包括非汽化材料。 玻璃基板设置在一个区域中,使得玻璃基板被充分加热,以允许燃烧的材料直接或间接地在玻璃基板上形成涂层。 涂层可以是基本均匀的。 在某些示例性实施例中,可以沉积氧化硅涂层,这增加玻璃基板的可见透射率至少约1.7%。
    • 9. 发明申请
    • In situ nano-particle matrix loading of metal oxide coatings via combustion deposition
    • 通过燃烧沉积原位纳米颗粒基体负载金属氧化物涂层
    • US20090233088A1
    • 2009-09-17
    • US12076101
    • 2008-03-13
    • Mark A. LewisDavid D. McLean
    • Mark A. LewisDavid D. McLean
    • B32B5/16B05D1/38B32B17/06
    • C23C16/453C03C17/007C03C2217/42C03C2217/732C03C2218/365C23C16/402Y10T428/259
    • Certain example embodiments relate to the deposition of metal oxide coatings via combustion deposition. In certain example embodiments, the metal oxide coating may be a silicon oxide coating (e.g., SiO2, or other suitable stoichiometry) and, in certain example embodiments, the silicon oxide coating may serve as an anti-reflective (AR) coating. In certain example embodiments, a percent visible transmission gain of at least about 2.0%, and more preferably between about 3.0-3.25%, may be realized through the growth of films on a first surface of the substrate. The coatings produced in accordance with certain example embodiments possess an enhanced transmission increase over previously combustion deposition produced single-layer anti-reflective coatings. This may be accomplished in certain example embodiments by provided mixed or graded microstructure metal oxide coatings (e.g., silicon oxide growths that alternate between using process conditions that produce small nucleation particle size distributions and process conditions that produce large agglomerate nano-particle size distributions) and/or by in situ nano-particle matrix loading of metal oxide coatings via combustion deposition.
    • 某些示例实施例涉及通过燃烧沉积沉积金属氧化物涂层。 在某些示例性实施方案中,金属氧化物涂层可以是氧化硅涂层(例如,SiO 2或其它合适的化学计量),并且在某些示例性实施方案中,氧化硅涂层可以用作抗反射(AR)涂层。 在某些示例性实施例中,可以通过在衬底的第一表面上生长膜来实现至少约2.0%,更优选在约3.0-3.25%之间的百分比可见透射增益。 根据某些示例性实施例生产的涂层比先前产生的单层抗反射涂层的燃烧沉积具有增强的透射增加。 这可以在某些示例性实施方案中通过提供混合或分级显微组织金属氧化物涂层(例如,在使用产生小成核粒度分布的工艺条件和产生大的聚集体纳米粒度分布的工艺条件之间交替的氧化硅生长)和 /或通过燃烧沉积的金属氧化物涂层的原位纳米颗粒基质负载。