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    • 25. 发明授权
    • Rear-projection screen
    • 背投屏幕
    • US08000006B2
    • 2011-08-16
    • US12496793
    • 2009-07-02
    • Daniel PerottiGuy Siraux
    • Daniel PerottiGuy Siraux
    • G03B21/56G03B21/60
    • G03B21/60Y10T156/10
    • The present invention is directed to a rear-projection screen which encompasses 1) a flexible light-diffusive first film having a substantially smooth first surface and an opposing substantially smooth second surface, and comprising a wax-free amorphous thermoplastic matrix having a plurality of light-diffusing particles dispersed therein and which is lens-free; and 2) an opposing flexible light-absorption second film having a first surface and an opposing second surface, and comprising a thermoplastic matrix having a plurality of light-absorbing particles dispersed therein, wherein the first and second films are adapted to be 3) bonded together in direct contact with each other and then, affixed as a laminate to one or more transparent rigid substrates or 4) affixed individually to a transparent rigid substrate.
    • 本发明涉及一种背投屏幕,其包括:1)具有基本光滑的第一表面和相对的基本平滑的第二表面的柔性光扩散第一膜,并且包括具有多个光的无蜡无定形热塑性基体 分散在其中并且不透镜的分散颗粒; 和2)具有第一表面和相对的第二表面的相对的柔性光吸收第二膜,并且包括其中分散有多个光吸收颗粒的热塑性基体,其中所述第一和第二膜适于3)键合 一起彼此直接接触,然后作为层压体粘贴到一个或多个透明刚性基材上,或4)分别固定在透明刚性基材上。
    • 27. 发明授权
    • Three-dimensional microstructured multilayer products
    • 三维微结构多层产品
    • US07879419B2
    • 2011-02-01
    • US10583424
    • 2005-01-03
    • Robert Ghislain Stocq
    • Robert Ghislain Stocq
    • B32B9/00B32B33/00B32B7/12B32B15/04
    • B29C59/026B29C59/046B29C2035/0827B29L2009/00C09J7/403C09J2423/006C09J2427/006C09J2467/006C09J2483/005Y10T428/14Y10T428/1452Y10T428/1457Y10T428/1486Y10T428/24612Y10T428/28Y10T428/2848
    • A method of forming a three-dimensional microstructure on a flat surface of a support, comprising the application of a first flat and uniform layer of silicone on said surface of support and the application on the first layer of silicone of a second three dimensionally microstructured layer of silicone, said first layer and second layer of silicone become integrally connected to thus form a common three-dimensional microstructure ensuring anti-adhesive properties distributed regularly on the surface of the support, so that any flexible surface of substrate, in particular a surface of adhesive deposited on said layers of silicone will be microstructured by inverse replication of the three-dimensional microstructure formed by the two layers of silicone, where said layers of silicone are fixed by hardening by heating or by exposure to an ultraviolet or electronic radiation, or a combination thereof, applications thereof and films, notably self-adhesive films, such as those microstructured by said method.
    • 一种在支撑体的平坦表面上形成三维微结构的方法,包括在支撑体的所述表面上施加第一扁平且均匀的硅氧烷层,以及在第二三维微结构层的第一硅氧烷层上的应用 的硅氧烷,所述第一层和第二层硅变得一体连接,从而形成共同的三维微结构,确保防粘性能规则地分布在载体的表面上,使得基材的任何柔性表面,特别是 沉积在所述硅树脂层上的粘合剂将通过由两层硅树脂形成的三维微结构的反向复制而微结构化,其中所述硅氧烷层通过加热硬化或通过暴露于紫外线或电子辐射来固定,或 其组合,其应用和膜,特别是自粘膜,例如微结构的膜 通过所述方法。
    • 30. 发明授权
    • Pipe insulation sleeve
    • 管绝缘套管
    • US6016846A
    • 2000-01-25
    • US597842
    • 1996-02-07
    • Gerald H. KnittelKasper J. NiemiraJudith A. Roth
    • Gerald H. KnittelKasper J. NiemiraJudith A. Roth
    • F16L59/02F16L11/04
    • F16L59/022
    • Pipe insulation sleeve and adhesive construction therefor, having a reduced amount of stress applied to the adhesive. A flexible foamed elastomeric tubular pipe insulation sleeve has a longitudinally extending slit which enables the sleeve or jacket to be placed around a pipe or portion thereof. An adhesive is applied to opposite walls of the slit, forming an adhesive joint, in order to hold the construction together after the insulation sleeve has been placed around a section of pipe. Stress on the adhesive joint is minimized or reduced in either of two ways. First, the tubular sleeve is formed with a V-shaped slit in which the opposite faces or walls of the slits intersect at an acute angle. In a preferred embodiment, the V is inverted (i.e., the open end of the V faces inwardly) and formed essentially along the minor axis of the elliptical shape which the sleeve assumes over time. In a completed construction in which the tubular sleeve encircles a portion of pipe, the walls of the slit are in facing engagement with each other, and held in engagement by adhesive. In a second construction for reducing stress, adhesive is applied both to the opposite walls of the silt as well as to longitudinally extending portions of the inner surface of the sleeve which are immediately adjacent to the slit, so that the sleeve can be adhered to itself along the slit and to the pipe which it encircles. These two constructions can be combined.
    • 管道绝缘套管及其粘合剂结构,其施加到粘合剂上的应力减小。 柔性泡沫弹性体管状管绝缘套管具有纵向延伸的狭缝,其能够使套管或套管围绕管或其一部分放置。 将粘合剂施加到狭缝的相对的壁上,形成粘合剂接头,以便在绝缘套管围绕一段管道放置之后将结构保持在一起。 粘合剂接头上的应力以两种方式中的任一方式被最小化或减少。 首先,管状套筒形成有V形狭缝,其中狭缝的相对面或壁以锐角相交。 在一个优选实施例中,V被倒置(即,V的开口端面向内),并且基本上沿着套管随时间呈现的椭圆形状的短轴形成。 在管状套筒围绕管道的一部分的完成结构中,狭缝的壁彼此面对接合并且通过粘合剂保持接合。 在用于减小应力的第二结构中,将粘合剂施加到淤泥的相对壁以及紧邻狭缝的套筒内表面的纵向延伸部分,使得套筒可以粘附到自身上 沿着狭缝和它所围绕的管道。 这两个结构可以组合。