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    • 1. 发明授权
    • Device and method for polishing a semiconductor substrate
    • 用于研磨半导体衬底的装置和方法
    • US6051500A
    • 2000-04-18
    • US80992
    • 1998-05-19
    • Alvaro MauryArun K. NandaOmar Rodriguez
    • Alvaro MauryArun K. NandaOmar Rodriguez
    • B24B1/04B24B37/04H01L21/304H01L21/321H01L21/768
    • B24B1/04B24B37/042H01L21/3212H01L21/7684
    • The present invention provides a method for polishing a semiconductor substrate having a first layer of material formed on a second layer of different material. In one embodiment, the method includes placing the semiconductor substrate against a polishing surface and polishing the semiconductor substrate, producing a first vibration by polishing and removing the first layer, producing a second vibration by polishing at least a portion of the second layer, and detecting a change from the first vibration to the second vibration with a vibration sensor. The vibration that is sensed in the present invention is physical or mechanical vibration, and it is not a vibration associated with a change in temperature. The vibration sensor may be of varying types. For example, the vibration sensor may be an acoustic sensor or an ultrasonic sensor.
    • 本发明提供一种用于研磨具有形成在不同材料的第二层上的第一材料层的半导体衬底的方法。 在一个实施例中,该方法包括将半导体衬底放置在抛光表面上并抛光半导体衬底,通过抛光和去除第一层产生第一振动,通过抛光第二层的至少一部分产生第二振动,以及检测 用振动传感器从第一次振动到第二次振动的变化。 在本发明中感测到的振动是物理或机械振动,并且它不是与温度变化相关联的振动。 振动传感器可以是不同类型的。 例如,振动传感器可以是声传感器或超声波传感器。
    • 2. 发明授权
    • Wafer carrier modification for reduced extraction force
    • 晶片载体修改减少提取力
    • US06281128B1
    • 2001-08-28
    • US09332216
    • 1999-06-14
    • Alvaro MauryJohn A. MazeFrank MiceliJose Omar RodriguezRobert M. Symons
    • Alvaro MauryJohn A. MazeFrank MiceliJose Omar RodriguezRobert M. Symons
    • H01L21302
    • B24B37/30
    • The present invention provides a wafer carrier for use with a semiconductor wafer polishing apparatus. In one embodiment, the wafer carrier comprises a carrying head having opposing first and second surfaces, a primary channel system formed in the second surface, and a secondary channel system formed in the second surface. The first surface is coupleable to the semiconductor polishing apparatus and the second surface is adapted to receive a semiconductor wafer to be polished. The primary channel system comprises first and second intersecting channels. The secondary channel system intersects the primary channel system so that the secondary channel system and the primary channel system cooperate to occupy a substantial portion of a surface area of the second surface. Therefore, the primary channel system and the secondary channel system decrease an amount of force required to remove the semiconductor wafer from the second surface.
    • 本发明提供一种与半导体晶片抛光装置一起使用的晶片载体。 在一个实施例中,晶片载体包括具有相对的第一和第二表面的承载头,形成在第二表面中的主要通道系统,以及形成在第二表面中的辅助通道系统。 第一表面可耦合到半导体抛光装置,第二表面适于接收待抛光的半导体晶片。 主通道系统包括第一和第二相交通道。 次通道系统与主通道系统相交,使得辅助通道系统和主通道系统协同占据第二表面的表面区域的主要部分。 因此,主通道系统和次通道系统减少了从第二表面移除半导体晶片所需的力。
    • 6. 发明授权
    • Zone polishing using variable slurry solid content
    • 使用可变浆料固体含量进行区域抛光
    • US07163438B2
    • 2007-01-16
    • US11208829
    • 2005-08-22
    • Alvaro MauryJovin LimNace LayadiSebastian Ouek
    • Alvaro MauryJovin LimNace LayadiSebastian Ouek
    • B24B49/00B24B7/00B24B1/00
    • B24B37/04B24B57/02
    • A slurry dispensing apparatus for use with a chemical mechanical polishing tool for planarizing semiconductor substrates having irregular topology. The apparatus includes a slurry dispensing manifold with a first end suspended over a polishing pad, and a second end for mounting to the chemical mechanical polishing tool. The slurry dispensing manifold has a linear array of nozzles positioned under the suspended manifold. Each nozzle provides an adjusted slurry mixture that is supplied from bifurcated supply lines. A first branch supplying a slurry, and a second branch supplying deionized water. Each nozzle is capable of providing a particular slurry concentration to either decrease or to increase polishing rate in specific zonal areas on a substrate according to its surface topology.
    • 一种用于与化学机械抛光工具一起用于平坦化具有不规则拓扑的半导体衬底的浆料分配装置。 该设备包括具有悬挂在抛光垫上的第一端的浆料分配歧管和用于安装到化学机械抛光工具的第二端。 浆料分配歧管具有位于悬浮歧管下方的线性阵列的喷嘴。 每个喷嘴提供从分叉供应管线供应的经调节的浆料混合物。 供应浆料的第一分支和供应去离子水的第二分支。 根据其表面拓扑结构,每个喷嘴能够提供特定的浆料浓度以降低或提高基材上特定区带区域的抛光速率。
    • 8. 发明授权
    • Additional etching to decrease polishing time for shallow-trench isolation in semiconductor processing
    • 附加蚀刻以减少半导体处理中浅沟槽隔离的抛光时间
    • US06372605B1
    • 2002-04-16
    • US09603340
    • 2000-06-26
    • Stephen C. KuehneAlvaro MauryScott F. Shive
    • Stephen C. KuehneAlvaro MauryScott F. Shive
    • H01L2176
    • H01L21/76229
    • During formation of shallow-trench isolation (STI) structures during semiconductor processing, an additional oxide-reduction etching step is performed prior to chemical-mechanical processing. In one implementation wet-etching and/or sputter etch-back (SEB) is performed prior to applying a reverse-tone mask. In another implementation a wet etching step is performed after the reverse-tone mask is stripped. One significant result of each of these steps is a reduction in the height and width of at least some of the oxide horns that remain after the reverse-tone mask is stripped. As such, the oxide structures that need to be planarized during CMP will be smaller than those of the prior art. Moreover, since the resulting oxide structures that need to be planarized by CMP processing are smaller, the oxide layer can be initially applied at a smaller thickness than that of the prior art. As such, the duration of CMP processing can be correspondingly shorter, resulting in polished semiconductor wafer surfaces with greater uniformity than that provided by the prior art.
    • 在半导体处理期间形成浅沟槽隔离(STI)结构期间,在化学机械处理之前执行附加的氧化物还原蚀刻步骤。 在一个实施方式中,在应用反向色调掩模之前执行湿蚀刻和/或溅射蚀回(SEB)。 在另一实施方案中,在剥离反色调掩模之后执行湿蚀刻步骤。 这些步骤中的每一个的一个显着结果是减少在消除反色调掩模之后残留的至少一些氧化物喇叭的高度和宽度。 因此,在CMP期间需要平坦化的氧化物结构将小于现有技术的氧化物结构。 此外,由于需要通过CMP处理进行平坦化的所得到的氧化物结构较小,所以可以以比现有技术更薄的厚度开始施加氧化物层。 因此,CMP处理的持续时间可以相应地更短,导致抛光的半导体晶片表面具有比现有技术提供的更大的均匀性。