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    • 4. 发明授权
    • Method of making a glass envelope
    • 制作玻璃外壳的方法
    • US07565817B2
    • 2009-07-28
    • US11303578
    • 2005-12-15
    • Joseph Francis Schroeder, III
    • Joseph Francis Schroeder, III
    • C03B29/02C03B32/02
    • C03C3/118C03B23/203C03C17/28C03C23/0015C03C23/002C03C23/0025C03C23/007C03C27/06C03C27/10
    • The coefficient of absorption of a pre-selected region of a glass sheet is preferentially increased. The glass sheet may thereafter be sealed to a substrate using a sealing laser. In one embodiment, the coefficient of absorption sheet is increased by irradiating the glass sheet at a wavelength of about 248 nm, preferably through a mask, to produce an irradiated pattern on the glass sheet having a pre-determined shape. The glass sheet is then heat treated, placed over a substrate and sealed to the substrate by exposing the irradiated pattern to a sealing laser light having a wavelength in the range between about 355 nm and 532 nm to produce a glass envelope. The method disclosed herein is useful, inter alia, for manufacturing electro-luminescent devices, such as light emitting diodes (LEDs) and in particular organic light emitting diodes (OLEDs).
    • 玻璃板的预选区域的吸收系数优先增加。 然后可以使用密封激光将玻璃片密封到基板。 在一个实施例中,吸收片的系数通过以约248nm的波长照射玻璃板,优选通过掩模来增加,以在具有预定形状的玻璃板上产生照射图案。 然后将玻璃板进行热处理,放置在基板上并通过将照射图案暴露于波长在约355nm至532nm之间的密封激光而密封至基板以产生玻璃封套。 本文公开的方法尤其用于制造电致发光器件,例如发光二极管(LED),特别是有机发光二极管(OLED)。
    • 9. 发明申请
    • COATED ARTICLE WITH SEQUENTIALLY ACTIVATED LOW-E COATING, AND/OR METHOD OF MAKING THE SAME
    • 具有顺序活化的低-E涂层的涂层制品和/或其制备方法
    • US20160368817A1
    • 2016-12-22
    • US14744235
    • 2015-06-19
    • Guardian Industries Corp.
    • Alexey KRASNOVHerbert LAGEJean-Marc LEMMER
    • C03C17/36C03C25/22
    • C03C17/3613C03C17/36C03C17/3626C03C17/3639C03C17/3644C03C17/3652C03C17/366C03C23/001C03C23/0015C03C23/007C03C25/226C03C2217/73C03C2218/154
    • Certain example embodiments relate to coated articles with sequentially activated low-E coatings, and/or methods of making the same. In certain example embodiments, one or more infrared reflecting layers is/are activated via a non-equilibrium preconditioning activation that uses photons with specific frequencies/frequency ranges, followed by a more equilibrium thermal activation. The preconditioning activation aids in rearranging the silver atoms to energetically favorable positions, while helping to avoid their unwanted agglomeration. The more equilibrium thermal stage of activation aids in aligning the chemical potentials of the layers of the stack and in further densification of the preconditioned silver layer. Doing so, in turn, helps to reduce the likelihood of stresses building-up in the coating, the formation of point and dimensional defects, other unwanted efficiency-reducing phenomena, and/or the like. Advantageously, emissivity can be lowered to a value lower than that achievable using conventional thermal, flash, and laser scanning, approaches alone.
    • 某些示例性实施方案涉及具有顺次活化的低-E涂层的涂覆制品,和/或制备该涂层制品的方法。 在某些示例性实施例中,一个或多个红外反射层通过使用具有特定频率/频率范围的光子的非平衡预处理激活来激活,随后是更平衡的热激活。 预处理激活有助于将银原子重新排列到能量有利的位置,同时有助于避免它们的不期望的聚集。 激活的平衡热阶段越多,有助于对齐堆叠层的化学势和进一步致密化预处理的银层。 反过来,这有助于减少涂层中的应力积累,点和尺寸缺陷的形成,其它不期望的效率降低现象等的可能性。 有利地,发射率可以降低到低于使用常规热,闪光和激光扫描单独实现的可能性的值。