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    • 2. 发明申请
    • Luminescent solar concentrator devices
    • 发光太阳能集中器装置
    • US20090120488A1
    • 2009-05-14
    • US12290541
    • 2008-10-31
    • Istvan GorogRobert J. Pressley
    • Istvan GorogRobert J. Pressley
    • H01L31/042
    • H01L31/055H01L31/0547Y02E10/52
    • A relatively large field of laminated fluorescent square LSC tiles are interdigitated by long thin bi-facial silicon photovoltaic cells. The laminated fluorescent LSC tiles each comprise a thick clear substrate bonded to a fluorescent dye film with a mirror backing and a protective layer. Incident sunlight is received by the clear substrate's face, and the dye converts that to fluorescent light. The resulting fluorescent light can only escape out the perimeter edges of the clear substrate where the photovoltaic cells are positioned. Each silicon photovoltaic cell receives fluorescent light laterally from the adjacent and opposite edges of the two fluorescent LSC tiles it separates. The collection area of the face of each fluorescent LSC tile is very large compared to the areas of the edges, and so highly concentrated light is provided to relatively small area photovoltaic cells for conversion to electricity.
    • 层叠荧光正方形LSC瓷砖的相对较大的领域被长薄的双面硅光伏电池互相指向。 层压荧光LSC瓦片各自包括用透镜背衬和保护层粘合到荧光染料膜上的厚透明基底。 事件太阳光被透明基板的表面接收,染料将其转换成荧光灯。 所产生的荧光灯只能从位于光伏电池的清洁基板的周边边缘排出。 每个硅光伏电池从其分离的两个荧光LSC瓷砖的相邻和相对的边缘侧向接收荧光。 每个荧光LSC瓷砖的面的收集面积与边缘的面积相比非常大,因此将高度集中的光提供给用于转换成电的相对小的光伏电池。
    • 3. 发明申请
    • Solar Collection Device
    • 太阳能收集装置
    • US20090032083A1
    • 2009-02-05
    • US11991986
    • 2006-09-13
    • Jerry B. TorranceRobert J. Pressley
    • Jerry B. TorranceRobert J. Pressley
    • H01L31/02
    • H01L31/02322H01L31/04Y02E10/50
    • Solar collection devices make use of (a) an absorption body including luminescent material and (b) photovoltaic (PV) cells placed at the edges of the absorption body. The luminescent material absorbs solar radiation and generates luminescent radiation of a different wavelength. The PV cells receive the luminescent radiation and convert it into electrical energy. The devices have one or more of the following characteristics:—(a) the luminescent material is such that part of the radiation is converted into electrical energy and part of the radiation is transmitted; (b) the PV cells are bifacial, i.e. will generate electricity in response to radiation from both sides; (c) the PV cells have electrodes which do not lie between the PV cell and the luminescent body; and (d) the constitution and/or dimensions of the PV cells and/or of the luminescent body are selected so as to provide a desired result, e.g. a desired spatial variation in the generation of luminescent radiation, a desired spatial variation in the ratio of absorption to transmission, or more uniform generation of current in the different PV cells.
    • 太阳能收集装置利用(a)包含发光材料的吸收体和(b)放置在吸收体边缘的光伏(PV)电池。 发光材料吸收太阳辐射并产生不同波长的发光辐射。 PV电池接收发光辐射并将其转换成电能。 这些装置具有以下特征中的一个或多个: - (a)发光材料使得辐射的一部分转换成电能并且部分辐射被传输; (b)PV电池是双面的,即响应于来自两侧的辐射而发电; (c)PV电池具有不在PV电池和发光体之间的电极; 和(d)选择PV电池和/或发光体的构成和/或尺寸以提供期望的结果,例如, 产生发光辐射所需的空间变化,吸收与透射比的期望的空间变化或不同的PV电池中更均匀的电流产生。
    • 5. 发明授权
    • Gap jumping to seal structure including tacking of structure
    • 差距跳跃到密封结构,包括结构的结构
    • US5820435A
    • 1998-10-13
    • US766474
    • 1996-12-12
    • Anthony J. CooperFloyd R. PothovenPaul N. LudwigTheodore S. FahlenRobert J. Pressley
    • Anthony J. CooperFloyd R. PothovenPaul N. LudwigTheodore S. FahlenRobert J. Pressley
    • H01J9/26
    • H01J9/261H01J2329/00
    • A structure, such as a flat-panel device, is sealed together by a gap-jumping technique in which an edge (44S) of a wall (44) is positioned near a matching sealing area (40S) of a plate structure (40) such that a gap (48) at least partially separates the edge of the wall from the sealing area of the plate structure. The gap usually has an average height of 25 .mu.m or more. Energy is then transferred locally to material of the wall along the gap to cause material of the wall and the plate structure to bridge the gap and seal the plate structure to the wall. The energy-transferring step is typically performed with light energy provided by a laser (56). Local energy transfer can also be utilized to tack the plate structure to the wall at multiple spaced-apart locations (44A) along the wall. The tacking operation is typically performed as a preliminary step to sealing the plate structure to the wall.
    • 诸如平板装置的结构通过间隙跳跃技术被密封在一起,其中壁(44)的边缘(44S)位于板结构(40)的匹配的密封区域(40S)附近, 使得间隙(48)至少部分地将壁的边缘与板结构的密封区域分开。 间隙通常平均高度为25亩以上。 然后,能量沿着间隙局部转移到壁的材料上,以使壁和板结构的材料桥接间隙并将板结构密封到壁上。 能量转移步骤通常由激光器(56)提供的光能进行。 局部能量转移也可用于沿着墙壁在多个间隔开的位置(44A)处将板结构固定到壁上。 通常,将定位操作作为将板结构密封到壁的预备步骤。
    • 7. 发明授权
    • Gap jumping to seal structure, typically using combination of vacuum and
non-vacuum environments
    • 通常使用真空和非真空环境的组合来跳越密封结构
    • US6109994A
    • 2000-08-29
    • US766477
    • 1996-12-12
    • Steven T. ChoAlfred S. ContePaul N. LudwigAnthony P. SchmidTheodore S. FahlenRobert J. Pressley
    • Steven T. ChoAlfred S. ContePaul N. LudwigAnthony P. SchmidTheodore S. FahlenRobert J. Pressley
    • H01J9/26
    • H01J9/261H01J2329/00
    • Portions (40 and 44) of a structure, such as a flat-panel device, are sealed together by a gap-jumping technique in which a sealing area (40S) of one portion is positioned near a matching sealing area (44S) of another portion such that a gap (48) at least partially separates the two sealing areas. The gap typically has an average height of 25 .mu.m or more. With the two portions of the structure so positioned, energy is initially transferred locally to material of a specified one of the portions along part of the gap while the two portions are in a non-vacuum environment to cause material of the two portions to bridge that part of the gap and partially seal the two portions together along the sealing areas. Energy is subsequently transferred locally to material of the specified portion of the structure along the remainder (48A) of the gap while the two portions are in a vacuum environment to cause material of the two portions to bridge the remainder of the gap and complete sealing of the two portions together along the gap. A laser (56) is typically employed in performing at least one of the gap-jumping steps.
    • 诸如平板装置的结构的部分(40和44)通过间隙跳跃技术被密封在一起,其中一个部分的密封区域(40S)位于另一个的匹配密封区域(44S)附近 使得间隙(48)至少部分地分离两个密封区域。 间隙通常具有25μm或更大的平均高度。 在结构的两个部分如此定位的情况下,能量被初始地沿着间隙的一部分局部转移到指定的一个部分的材料,同时两个部分处于非真空环境中,以使两部分的材料桥接 部分间隙并沿密封区域将两部分部分地密封在一起。 随后沿着间隙的剩余部分(48A)将能量局部转移到结构的特定部分的材料上,同时两部分处于真空环境中,以使两部分的材料桥接剩余的间隙并完全密封 两个部分沿缝隙一起。 激光器(56)通常用于执行间隙跳跃步骤中的至少一个。