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    • 1. 发明授权
    • Method for fabricating high resolution color filter image array optoelectronic microelectronic fabrication
    • 高分辨率彩色滤光片图像阵列光电微电子制造方法
    • US06511779B1
    • 2003-01-28
    • US09634776
    • 2000-08-09
    • Fu-Tien WengChiu-Kung ChangYu-Kung HsiaoBii-Junq ChangKuo-Lian Lu
    • Fu-Tien WengChiu-Kung ChangYu-Kung HsiaoBii-Junq ChangKuo-Lian Lu
    • G02D520
    • H01L27/14685H01L27/14621H01L27/14627H01L31/02162H01L31/02327
    • Within a method for forming an image array optoelectronic microelectronic fabrication there is first provided a substrate. There is then formed at least in part over the substrate a bidirectional array of image array optoelectronic microelectronic pixel elements comprising a plurality of series of patterned color filter layers corresponding with a plurality of colors. Within the method, at least one series of patterned color filter layers within the plurality of series of patterned color filter layers corresponding with at least one color within the plurality of colors is formed employing a photolithographic method which employs a plurality of separate photoexposure steps for forming a plurality of separate sub-series of patterned color filter layers within the series of patterned color filter layers corresponding with the at least one color within the plurality of colors. By employing the plurality of separate photoexposure steps for forming the plurality of separate sub-series of patterned color filter layers within the series of patterned color filter layers corresponding with the at least one color within the plurality of colors, the image array optoelectronic microelectronic fabrication is formed with enhanced resolution.
    • 在用于形成图像阵列光电微电子制造的方法中,首先提供衬底。 然后至少部分地在衬底上形成包括对应于多种颜色的多个图案化滤色器层的多个图案阵列光电微电子像素元件的双向阵列。 在该方法中,使用光刻方法形成与多个颜色中的至少一种颜色相对应的多个图案化滤色器层系列内的至少一系列图案化滤色器层,其采用多个单独的曝光步骤以形成 在所述一系列图案化滤色器层内的多个分离的子系列的图案化滤色器层,其对应于所述多种颜色中的所述至少一种颜色。 通过采用多个单独的曝光步骤,用于在对应于多种颜色中的至少一种颜色的一系列图案化滤色器层内形成多个单独的子系列图案化滤色器层,图像阵列光电微电子制造是 形成了更高的分辨率。
    • 6. 发明授权
    • Rework procedure for the microlens element of a CMOS image sensor
    • CMOS图像传感器的微透镜元件的返工程序
    • US06531266B1
    • 2003-03-11
    • US09808920
    • 2001-03-16
    • Chih-Kung ChangKuang-Peng LinYu-Kung HsiaoFu-Tien WengBii-Junq ChangKuo-Liang Lu
    • Chih-Kung ChangKuang-Peng LinYu-Kung HsiaoFu-Tien WengBii-Junq ChangKuo-Liang Lu
    • H01L2714
    • B29D11/00365G02B3/0018H01L31/02162H01L31/02327
    • A process for reworking a non-reflowed, defective microlens element shape, of an image sensor device, without damage to an underlying spacer layer, or to underlying color filter elements, has been developed. The non-reflowed, microlens element shape, if defective and needing rework, is first subjected to a high energy exposure, converting the non-reflowed, microlens element shape to a acid type, microlens shape, then removed using a base type developer solution. Prior to formation of a reworked microlens element shape a baking cycle is employed to freeze, or render inactive, any organic residue still remaining on the surface of the spacer layer, after the base type developer removal procedure. Formation of the reworked, microlens element shape, followed by an anneal cycle, results in the desired rounded, microlens element, on the underlying spacer layer.
    • 已经开发了一种用于重新制造图像传感器装置的未回流,有缺陷的微透镜元件形状的过程,而不损坏下面的间隔层或底层滤色器元件。 未回流的微透镜元件形状(如果有缺陷和需要返工)首先经受高能量曝光,将未回流的微透镜元件形状转换成酸型微透镜形状,然后使用碱式显影剂溶液除去。 在形成再加工的微透镜元件形状之前,在基底型显影剂移除程序之后,使用烘烤循环来冷冻或使无活性的任何残留在间隔层的表面上的有机残余物。 返工的微透镜元件形状的形成,随后是退火循环,在下面的间隔层上产生所需的圆形微透镜元件。
    • 8. 发明授权
    • Microlens structure for improved CMOS image sensor sensitivity
    • 微透镜结构提高了CMOS图像传感器的灵敏度
    • US07505206B2
    • 2009-03-17
    • US11456249
    • 2006-07-10
    • Jack DengChih-Kung ChangChin Chen KuoMing-Chang KaoFu-Tien WengBii-Junq Chang
    • Jack DengChih-Kung ChangChin Chen KuoMing-Chang KaoFu-Tien WengBii-Junq Chang
    • G02B27/10
    • G02B3/0056G02B3/0018
    • A method of manufacturing a microlens device by depositing a microlens material layer over a substrate that includes photo-sensors. The microlens material layer is then exposed and developed to define microlens material elements, including first microlens material elements and second microlens material elements. Each second microlens material element is substantially greater in thickness relative to each first microlens material element. The microlens material elements are then heated to form a microlens array that includes first microlens array elements, each corresponding to a first microlens material element, and second microlens array elements, each corresponding to a second microlens material element. Each first microlens array element has a substantially greater focal length relative to each second microlens array element. For example, each second microlens array element is substantially greater in thickness relative to each first microlens array element.
    • 一种通过在包括光电传感器的衬底上沉积微透镜材料层来制造微透镜器件的方法。 然后将微透镜材料层曝光和显影以限定微透镜材料元件,包括第一微透镜材料元件和第二微透镜材料元件。 每个第二微透镜材料元件相对于每个第一微透镜材料元件的厚度基本上更大。 然后将微透镜材料元件加热以形成微透镜阵列,其包括每个对应于第一微透镜材料元件的第一微透镜阵列元件和分别对应于第二微透镜材料元件的第二微透镜阵列元件。 每个第一微透镜阵列元件相对于每个第二微透镜阵列元件具有大得多的焦距。 例如,每个第二微透镜阵列元件相对于每个第一微透镜阵列元件的厚度基本上更大。