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    • 1. 发明授权
    • Method for fabricating pixelated polymer organic light emitting devices
    • 制造像素化聚合物有机发光器件的方法
    • US6111356A
    • 2000-08-29
    • US59608
    • 1998-04-13
    • Daniel B. RoitmanJames R. SheatsFereidoun Pourmirzaie
    • Daniel B. RoitmanJames R. SheatsFereidoun Pourmirzaie
    • G09F9/30H01L27/32H01L51/50H01L51/52H05B33/12H05B33/14H05B33/22H01J1/62
    • H01L27/3281H01L51/5221H01L27/3283H01L51/5048
    • A display having a plurality of addressable pixels and a method for constructing the same. The display includes a substrate having a first conducting layer thereon. The conducting layer includes a plurality of parallel row electrodes having edges separated by insulating material. A first polymer layer constructed from one or more thin films overlies the parallel row electrodes. An insulating layer overlies the polymer layer, the insulating layer having windows therein defining pixels for the display. The insulating layer overlies the edges of the row electrodes while providing access to the first polymer layer in the area of the pixels. A second conducting layer overlies the insulating layer and includes a plurality of separated column electrodes. Each column electrode crosses a plurality of the row electrodes and is located over the windows in the insulating layer at points defining the pixels. The second conducting layer is preferably constructed by depositing a layer of photoresist over the insulating layer and patterning the layer of photoresist to provide openings extending therethrough. The openings are wider in the portion of the layer nearest to the insulating layer. This layer acts as a shadow mask for depositing a layer of conducting material. In one embodiment of the invention, a second polymer layer is located between the insulating layer and the second conducting layer. The insulating layer is preferably constructed from a layer of photoresist that is baked to cross-link the photoresist. The polymer layers include an electroluminescent material, which is preferably based on a polyfluorene.
    • 具有多个可寻址像素的显示器及其构造方法。 显示器包括其上具有第一导电层的基板。 导电层包括多个平行的行电极,其边缘由绝缘材料分开。 由一个或多个薄膜构成的第一聚合物层覆盖在平行行电极上。 绝缘层覆盖聚合物层,绝缘层上具有窗口,用于显示器的像素。 绝缘层覆盖行电极的边缘,同时提供对像素区域中的第一聚合物层的访问。 第二导电层覆盖绝缘层并且包括多个分离的列电极。 每个列电极与多个行电极交叉,并且在限定像素的点处位于绝缘层中的窗口上方。 第二导电层优选通过在绝缘层上沉积光致抗蚀剂层并且图案化该光致抗蚀剂层以提供贯穿其中的开口而构成。 开口在最靠近绝缘层的层的部分较宽。 该层用作沉积导电材料层的荫罩。 在本发明的一个实施例中,第二聚合物层位于绝缘层和第二导电层之间。 绝缘层优选由烘烤以交联光致抗蚀剂的光致抗蚀剂层构成。 聚合物层包括电致发光材料,其优选基于聚芴。
    • 4. 发明授权
    • Organic electroluminescent device with full color characteristics
    • 有机电致发光器件具有全彩色特性
    • US6137221A
    • 2000-10-24
    • US111474
    • 1998-07-08
    • Daniel B. RoitmanJames R. Sheats
    • Daniel B. RoitmanJames R. Sheats
    • H01L27/32H01L51/50H01J1/62
    • H01L27/322H01L51/5036
    • An organic polymer based display and method for making the same. The display is constructed on a flexible sheet having first and second surfaces, the first and second surfaces being parallel to one another. The flexible sheet is transparent to light of a first wavelength. A first electrode, which includes a first electrode layer in contact with the first surface, is deposited on the flexible sheet. The first electrode layer is also transparent to light of the first wavelength. A light-emitting layer that includes an organic polymer is deposited on the electrode layer. A second electrode that includes a second electrode layer in contact with the light emitting layer is deposited on the light-emitting layer. The light emitting layer generates light of the first wavelength when a potential difference is applied across the first and second electrodes. A light conversion layer is deposited in contact with the second surface of the flexible sheet. The light conversion layer absorbs light of the first wavelength and emitting light of a second wavelength. In an addressable pixelated display, the light conversion layer and one of the first or second electrodes are patterned as parallel strips overlying one another.
    • 一种基于有机聚合物的显示器及其制造方法。 显示器构造在具有第一表面和第二表面的柔性片上,第一和第二表面彼此平行。 柔性片对于第一波长的光是透明的。 包括与第一表面接触的第一电极层的第一电极沉积在柔性片上。 第一电极层对于第一波长的光也是透明的。 包含有机聚合物的发光层沉积在电极层上。 包括与发光层接触的第二电极层的第二电极沉积在发光层上。 当跨越第一和第二电极施加电位差时,发光层产生第一波长的光。 沉积与柔性片的第二表面接触的光转换层。 光转换层吸收第一波长的光并发射第二波长的光。 在可寻址的像素化显示器中,光转换层和第一或第二电极之一被图案化成彼此重叠的平行条纹。
    • 7. 发明授权
    • Method and apparatus for fabricating polymer-based electroluminescent displays
    • 用于制造基于聚合物的电致发光显示器的方法和装置
    • US06174613B1
    • 2001-01-16
    • US09363964
    • 1999-07-29
    • Homer AntoniadisHoyle CurtisRonald L. MoonDaniel B. RoitmanJames R. Sheats
    • Homer AntoniadisHoyle CurtisRonald L. MoonDaniel B. RoitmanJames R. Sheats
    • B32B900
    • H01L27/3283H01L51/0004H01L51/5221H01L51/5253H01L2251/5315Y10S428/917
    • A method for fabricating an electroluminescent display and the substrate and apparatus used therein. The display is preferably constructed on a pre-constructed substrate that includes a flexible base layer having a conducting surface on one side thereof. The base layer is impermeable to oxygen and water. The substrate includes a plurality of wells defined by a barrier layer, each well having an electrode layer connected electrically with the conducting surface. A removable protective layer covering the wells protects the electrode layer from attack by oxygen and water prior to being utilized to make the display. In one embodiment, each of the wells also contains an electron transfer layer in contact with the electrode layer. The electron transfer layer includes a material that improves the efficiency of the injection of electrons from the electrode layer into the electroluminescent layer of the display. This display is fabricated by moving a first dispenser relative to the substrate so as to quantitatively deposit a first electroluminescent material on the substrate, different amounts of the first electroluminescent material being deposited at different locations on the substrate in response to signals defining an illumination pattern to be generated by the display. A conducting material is deposited on the first electroluminescent material. In color displays, a second electroluminescent material is also deposited, the second electroluminescent material emitting light at a different wavelength than the first electroluminescent material. A non-luminescent material, which is preferably an electrical insulator, can be deposited in wells at locations on the display that are not to emit light prior to depositing the conductive material.
    • 一种用于制造电致发光显示器的方法及其中使用的基板和装置。 显示器优选地构造在包括在其一侧具有导电表面的柔性基底层的预构造的基底上。 基层对氧和水是不透水的。 衬底包括由阻挡层限定的多个阱,每个阱具有与导电表面电连接的电极层。 覆盖井的可移除的保护层在用于制造显示器之前保护电极层免受氧气和水的侵害。 在一个实施例中,每个阱还包含与电极层接触的电子转移层。 电子转移层包括提高从电极层向显示器的电致发光层注入电子的效率的材料。 通过相对于衬底移动第一分配器来制造该显示器,以便在衬底上定量沉积第一电致发光材料,响应于限定照明图案的信号,不同量的第一电致发光材料沉积在衬底上的不同位置 由显示器生成。 导电材料沉积在第一电致发光材料上。 在彩色显示器中,还沉积第二电致发光材料,第二电致发光材料以与第一电致发光材料不同的波长发射光。 优选为电绝缘体的非发光材料可以沉积在显示器上的在沉积导电材料之前不发光的位置的孔中。
    • 10. 发明申请
    • ANTI-REFLECTIVE COATING
    • 防反射涂层
    • US20110019277A1
    • 2011-01-27
    • US12741919
    • 2008-11-10
    • Brian M. SagerJames R. Sheats
    • Brian M. SagerJames R. Sheats
    • G02B1/11B05D5/00
    • B29D11/00865G02B1/113G02B2207/107
    • Methods and devices are provided for improved anti-reflective coatings. Non-vacuum deposition of transparent conductive electrodes in a roll-to-roll manufacturing environment is disclosed. In one embodiment of the present invention, a device is provided comprising a multi-layer anti-reflective coating formed over a substantially transparent substrate; wherein the multi-layer anti-reflective coating comprises of a plurality of nanostructured layers, wherein each of the layers has a tuned porosity and at least some of the nanostructured layers have different porosities to create a different index of refraction for those layers. In some embodiments, the absorber layer for use with this anti-reflective layer is a group IB-IIIA-VIA absorber layer.
    • 提供了改进的抗反射涂层的方法和装置。 透明导电电极在卷对卷制造环境中的非真空沉积被公开。 在本发明的一个实施例中,提供一种装置,其包括在基本上透明的基底上形成的多层抗反射涂层; 其中所述多层抗反射涂层由多个纳米结构层组成,其中每个层具有调谐的孔隙度,并且所述纳米结构层中的至少一些具有不同的孔隙率以产生对于那些层的不同折射率。 在一些实施例中,与该抗反射层一起使用的吸收层是IB-IIIA-VIA族吸收层。