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    • 72. 发明申请
    • MICRO-WIRE PATTERN FOR ELECTRODE CONNECTION
    • 用于电极连接的微型图案
    • WO2014116534A1
    • 2014-07-31
    • PCT/US2014/012183
    • 2014-01-20
    • EASTMAN KODAK COMPANY
    • LEBENS, John, AndrewTRAUERNICHT, David, PaulWANG, YongcaiCOK, Ronald, Steven
    • H05K3/12H05K1/02G06F3/041
    • H05K1/0296G06F3/041G06F2203/04112H05K2201/0108H05K2201/10136H05K2201/10151
    • Micro-wires are arranged to form an electrical conductor connected to an electrode structure. The electrical conductor includes a plurality of spaced-apart first micro-wires extending in a first direction, wherein one of the first micro-wires is a connection micro-wire. A plurality of spaced-apart second micro-wires extends in a second direction different from the first direction. At least two adjacent second micro-wires are spaced apart by a distance greater than the spacing between at least two adjacent first micro-wires. Each second micro-wire is electrically connected to at least two first micro-wires. The electrode structure includes a plurality of electrically connected third micro-wires electrically connected to the connection micro-wire at spaced-apart connection locations and at least some of the adjacent connection locations are separated by a distance greater than any of the distances separating the second micro-wires.
    • 微线布置成形成连接到电极结构的电导体。 电导体包括沿第一方向延伸的多个间隔开的第一微细线,其中第一微线中的一个是连接微线。 多个间隔开的第二微细线沿与第一方向不同的第二方向延伸。 至少两个相邻的第二微细线彼此隔开距离大于至少两个相邻的第一微细线之间的距离。 每个第二微线电连接到至少两个第一微线。 电极结构包括多个电连接的第三微线,其在间隔开的连接位置处电连接到连接微线,并且至少一些相邻的连接位置被隔开一段距离,该距离大于将第二 微导线。
    • 73. 发明申请
    • CELL PHONE AUTHENTICATION DEVICE
    • 电话电话认证设备
    • WO2014120704A1
    • 2014-08-07
    • PCT/US2014/013476
    • 2014-01-29
    • EASTMAN KODAK COMPANY
    • PAWLIK, Thomas, D.BOSE, Judith, A.COK, Ronald, StevenBLISH, Nelson, A.
    • G07D7/12G07D7/00
    • H04N5/2254G06K7/10G07D7/005G07D7/12
    • A system for authenticating an object includes a label (12) with invisible indicia (14) on the object which rotates a polarization of incident light; a digital camera (18) having a light source (20), an image sensor (22), a first polarizing filter (24) having a first orientation, and a second polarizing filter (26) having a second orientation orthogonal to the first orientation; illuminating the label with light from the light source through the first linear polarizer; forming an image with the image sensor using reflected light from the label wherein the reflected light passes through the second polarizer prior to reaching the sensor; wherein the second linear polarizer makes the invisible indicia visible; and authenticating the object.
    • 用于认证对象的系统包括在物体上具有使入射光的偏振旋转的不可见标记(14)的标签(12); 具有光源(20)的数字照相机(18),图像传感器(22),具有第一取向的第一偏振滤光器(24)和具有与第一取向正交的第二取向的第二偏光滤光器 ; 用来自光源的光通过第一线性偏振器照射标签; 使用来自标签的反射光与图像传感器形成图像,其中反射光在到达传感器之前穿过第二偏振器; 其中所述第二线性偏振器使所述不可见标记可见; 并验证该对象。
    • 74. 发明申请
    • TRANSPARENT TOUCH-RESPONSIVE CAPACITOR WITH VARIABLE-HEIGHT MICRO-WIRES
    • 具有可变高度微线的透明触摸式电容器
    • WO2013130389A1
    • 2013-09-06
    • PCT/US2013/027610
    • 2013-02-25
    • EASTMAN KODAK COMPANY
    • COK, Ronald, Steven
    • G06F3/044
    • G06F3/044G06F2203/04112
    • A touch-responsive capacitive apparatus includes a transparent substrate having first and second pad and interstitial areas. Pairs of first and second pad areas define corresponding touch-responsive capacitors. Electrically connected first pad micro-wires are formed in the first pad areas and electrically connected first interstitial micro-wires are formed in the first interstitial areas. The first pad micro-wires are electrically connected to the first interstitial wires. Electrically connected second pad micro-wires are formed in the second pad areas and electrically connected second interstitial micro-wires are formed in the second interstitial areas. The second pad micro-wires are electrically connected to the second interstitial wires. The height of at least a portion of the first interstitial micro-wires is greater than the height of at least a portion of the first pad micro- wires.
    • 触摸式电容式设备包括具有第一和第二焊盘和间隙区域的透明衬底。 成对的第一和第二焊盘区域定义相应的触摸响应电容器。 电连接的第一焊盘微线形成在第一焊盘区域中,并且电连接的第一间隙微细线形成在第一间隙区域中。 第一衬垫微线电连接到第一间隙电线。 电连接的第二焊盘微线形成在第二焊盘区域中,并且电连接的第二间隙微细线形成在第二间隙区域中。 第二衬垫微线电连接到第二间隙电线。 第一间隙微细线的至少一部分的高度大于第一垫微丝的至少一部分的高度。
    • 76. 发明申请
    • MULTI-LAYER MICRO-WIRE SUBSTRATE STRUCTURE
    • 多层微电极基板结构
    • WO2015038345A1
    • 2015-03-19
    • PCT/US2014/053111
    • 2014-08-28
    • EASTMAN KODAK COMPANY
    • COK, Ronald, Steven
    • H05K1/11H05K1/09H05K3/12H05K3/46G06F3/044
    • H05K1/117G06F3/044H05K1/092H05K3/1258H05K3/4611H05K2201/0919H05K2201/09472H05K2201/09709H05K2201/09845
    • A multi-layer micro-wire structure (5) includes a substrate (10) having a substrate edge (12). A first layer is formed over the substrate extending to a first layer edge (22). One or more first micro-channels (60) are imprinted in the first layer, at least one imprinted first micro- channel having a micro-wire (50) forming at least a portion of an exposed first connection pad in the first layer. A second layer (30) is formed over the first layer extending to a second layer edge (32). One or more second micro-channels (62) are imprinted in the second layer, at least one imprinted second micro-channel having a micro- wire (50) forming at least a portion of an exposed second connection pad in the second layer. The second-layer edge is farther from the substrate edge (D2) than the first-layer edge (D1) for at least a portion of the second-layer edge so that the first connection pads are exposed through the second layer.
    • 多层微线结构(5)包括具有衬底边缘(12)的衬底(10)。 第一层形成在衬底上延伸到第一层边缘(22)上。 一个或多个第一微通道(60)被印在第一层中,至少一个压印的第一微通道具有在第一层中形成暴露的第一连接焊盘的至少一部分的微线(50)。 第二层(30)形成在延伸到第二层边缘(32)的第一层上。 一个或多个第二微通道(62)被印在第二层中,至少一个压印的第二微通道具有在第二层中形成暴露的第二连接焊盘的至少一部分的微线(50)。 对于第二层边缘的至少一部分,第二层边缘比距第一层边缘(D1)更远离基板边缘(D2),使得第一连接焊盘通过第二层曝光。
    • 78. 发明申请
    • NEURAL NETWORK WITH DAISY CHAIN CONTROL
    • 神经网络与DAISY链控制
    • WO1992011605A1
    • 1992-07-09
    • PCT/US1991009505
    • 1991-12-17
    • EASTMAN KODAK COMPANY
    • EASTMAN KODAK COMPANYCOK, Ronald, Steven
    • G06F15/80
    • G06N3/063
    • The present invention is a direct digitally implemented network system in which neural nodes (24, 26 and 28) which output to the same destination node (22) in the network share the same channel (30). If a set of nodes does not output any data to any node to which a second set of nodes outputs data (the two sets of nodes do not overlap or intersect), the two sets of nodes are independent and do not share a channel and have separate channels (120 and 122). The network is configured as parallel operating non-intersecting segments or independent sets where each segment has a segment communication channel or bus (30). Each node in the independent set or segment is sequentially activated to produce an output by a daisy chain control signal. The outputs are thereby time division multiplexed over the channel (30) to the destination node (22). Adding a redundant node (125) to a network can improve efficiency. The nodes are implemented on integrated circuits (158) with multiple nodes per circuits. The outputs of the nodes on the circuits in an segment are connected to the segment channel. Each node includes a memory array (136) that stores the weights applied to each input via a multiplier (152). The multiplied inputs are accumulated and applied to a lookup table (132) that performs any threshold comparison operation. The output of the lookup table (134) is placed on a common bus serving as the channel for the independent set of nodes by a tristate driver (44) controlled by the daisy chain control signal.