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    • 4. 发明授权
    • Spacer linewidth control
    • 间隔线宽控制
    • US08232215B2
    • 2012-07-31
    • US12622557
    • 2009-11-20
    • James A. CulpJeffrey P. GambinoJohn J. Ellis-MonaghanKirk D. PetersonJed H. Rankin
    • James A. CulpJeffrey P. GambinoJohn J. Ellis-MonaghanKirk D. PetersonJed H. Rankin
    • H01L21/302
    • H01L21/31144
    • A method for forming a plurality of variable linewidth spacers adjoining a plurality of uniformly spaced topographic features uses a conformal resist layer upon a spacer material layer located over the plurality of uniformly spaced topographic features. The conformal resist layer is differentially exposed and developed to provide a differential thickness resist layer that is used as a sacrificial mask when forming the variable linewidth spacers. A method for forming uniform linewidth spacers adjoining narrowly spaced topographic features and widely spaced topographic features over the same substrate uses a masked isotropic etching of a variable thickness spacer material layer to provide a more uniform partially etched spacer material layer, followed by an unmasked anisotropic etching of the partially etched spacer material layer. A related method for forming the uniform linewidth spacers uses a two-step anisotropic etch method that includes at least one masking process step.
    • 用于形成邻接多个均匀间隔的地形特征的多个可变线宽间隔物的方法在位于多个均匀间隔的地形特征之上的间隔物材料层上使用共形抗蚀剂层。 保形抗蚀剂层被差异地曝光和显影以提供在形成可变线宽间隔物时用作牺牲掩模的差分厚度抗蚀剂层。 用于形成均匀线宽间隔物的方法,其邻接狭窄间隔的地形特征和在相同基底上的宽间隔的地形特征,使用可变厚度间隔物材料层的掩蔽各向同性蚀刻,以提供更均匀的部分蚀刻的间隔物材料层,随后是未掩模的各向异性蚀刻 的部分蚀刻的间隔材料层。 用于形成均匀线宽间隔物的相关方法使用包括至少一个掩模处理步骤的两步各向异性蚀刻方法。
    • 7. 发明授权
    • Image sensor cells
    • 图像传感器单元
    • US07491992B2
    • 2009-02-17
    • US11619024
    • 2007-01-02
    • James W. AdkissonJohn J. Ellis-MonaghanMark D. JaffeRichard J. RasselJeffrey P. Gambino
    • James W. AdkissonJohn J. Ellis-MonaghanMark D. JaffeRichard J. RasselJeffrey P. Gambino
    • H01L31/62H01L31/113
    • H01L27/14609H01L27/1463H01L27/14641H01L27/14643H01L31/035281
    • A structure (and method for forming the same) for an image sensor cell. The method includes providing a semiconductor substrate. Then, a charge collection well is formed in the semiconductor substrate, the charge collection well comprising dopants of a first doping polarity. Next, a surface pinning layer is formed in the charge collection well, the surface pinning layer comprising dopants of a second doping polarity opposite to the first doping polarity. Then, an electrically conductive push electrode is formed in direct physical contact with the surface pinning layer but not in direct physical contact with the charge collection well. Then, a transfer transistor is formed on the semiconductor substrate. The transfer transistor includes first and second source/drain regions and a channel region. The first and second source/drain regions comprise dopants of the first doping polarity. The first source/drain region is in direct physical contact with the charge collection well.
    • 用于图像传感器单元的结构(及其形成方法)。 该方法包括提供半导体衬底。 然后,在半导体衬底中形成电荷收集阱,电荷收集阱包含第一掺杂极性的掺杂剂。 接下来,在电荷收集阱中形成表面钉扎层,表面钉扎层包括与第一掺杂极性相反的第二掺杂极性的掺杂剂。 然后,导电的推动电极形成为与表面钉扎层直接物理接触,但不与电荷收集阱直接物理接触。 然后,在半导体衬底上形成传输晶体管。 传输晶体管包括第一和第二源极/漏极区域和沟道区域。 第一和第二源/漏区包括第一掺杂极性的掺杂剂。 第一源极/漏极区域与电荷收集阱直接物理接触。
    • 9. 发明授权
    • Biosensors integrated with a microfluidic structure
    • 与微流体结构集成的生物传感器
    • US08551859B2
    • 2013-10-08
    • US13293795
    • 2011-11-10
    • Kristin M. AckersonJohn J. Ellis-MonaghanJeffrey P. GambinoYen L. Lim
    • Kristin M. AckersonJohn J. Ellis-MonaghanJeffrey P. GambinoYen L. Lim
    • H01L21/76H01L21/70
    • G01N27/4145H01L29/772
    • A biosensor with a microfluidic structure surrounded by an electrode and methods of forming the electrode around the microfluidic structure of the biosensor are provided. A method includes forming a gate or electrode in a first layer. The method further includes forming a trench in a second layer. The method further includes forming a first metal layer in the trench such that the first metal layer is in electrical contact with the gate or the electrode. The method further includes forming a sacrificial material in the trench. The method further includes forming a second metal layer over the sacrificial material and in contact with the first metal layer. The method further includes removing the sacrificial material such that a microfluidic channel is formed surrounded by the first and the second metal layers.
    • 提供了由电极包围的微流体结构的生物传感器和围绕生物传感器的微流体结构形成电极的方法。 一种方法包括在第一层中形成栅极或电极。 该方法还包括在第二层中形成沟槽。 该方法还包括在沟槽中形成第一金属层,使得第一金属层与栅极或电极电接触。 该方法还包括在沟槽中形成牺牲材料。 该方法还包括在牺牲材料上形成第二金属层并与第一金属层接触。 该方法还包括去除牺牲材料,使得由第一和第二金属层围绕的微流体通道形成。