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    • 6. 发明申请
    • EUTECTIC FLOW CONTAINMENT IN A SEMICONDUCTOR FABRICATION PROCESS
    • 半导体制造工艺中的保护性流动容纳
    • US20110042761A1
    • 2011-02-24
    • US12914859
    • 2010-10-28
    • Lisa H. KarlinHemant D. Desai
    • Lisa H. KarlinHemant D. Desai
    • H01L23/00H01L29/84
    • H01L23/10B81C1/00269B81C2203/019H01L23/04H01L2924/0002H01L2924/01079H01L2924/00
    • A disclosed semiconductor fabrication process includes forming a first bonding structure on a first surface of a cap wafer, forming a second bonding structure on a first surface of a device wafer, and forming a device structure on the device wafer. One or more eutectic flow containment structures are formed on the cap wafer, the device wafer, or both. The flow containment structures may include flow containment micro-cavities (FCMCs) and flow containment micro-levee (FCMLs). The FCMLs may be elongated ridges overlying the first surface of the device wafer and extending substantially parallel to the bonding structure. The FCMLs may include interior FCMLs lying within a perimeter of the bonding structure, exterior FCMLs lying outside of the bonding structure perimeter, or both. When the two wafers are bonded, the FCMLs and FCMCs confine flow of the eutectic material to the region of the bonding structure.
    • 所公开的半导体制造工艺包括在盖晶片的第一表面上形成第一接合结构,在器件晶片的第一表面上形成第二接合结构,并在器件晶片上形成器件结构。 在盖晶片,器件晶片或两者上形成一个或多个共晶流阻塞结构。 流动容纳结构可以包括流动容纳微空腔(FCMC)和流动容纳微堤(FCML)。 FCML可以是覆盖在器件晶片的第一表面上并且基本上平行于接合结构延伸的细长脊。 FCML可以包括位于结合结构的周边内部的内部FCML,位于结合结构周边外部的外部FCML或两者。 当两个晶片结合时,FCML和FCMC将共晶材料的流动限制在接合结构的区域。
    • 8. 发明授权
    • Eutectic flow containment in a semiconductor fabrication process
    • 半导体制造工艺中的共晶流动遏制
    • US07846815B2
    • 2010-12-07
    • US12414324
    • 2009-03-30
    • Lisa H. KarlinHemant D. Desai
    • Lisa H. KarlinHemant D. Desai
    • H01L23/00
    • H01L23/10B81C1/00269B81C2203/019H01L23/04H01L2924/0002H01L2924/01079H01L2924/00
    • A disclosed semiconductor fabrication process includes forming a first bonding structure on a first surface of a cap wafer, forming a second bonding structure on a first surface of a device wafer, and forming a device structure on the device wafer. One or more eutectic flow containment structures are formed on the cap wafer, the device wafer, or both. The flow containment structures may include flow containment micro-cavities (FCMCs) and flow containment micro-levee (FCMLs). The FCMLs may be elongated ridges overlying the first surface of the device wafer and extending substantially parallel to the bonding structure. The FCMLs may include interior FCMLs lying within a perimeter of the bonding structure, exterior FCMLs lying outside of the bonding structure perimeter, or both. When the two wafers are bonded, the FCMLs and FCMCs confine flow of the eutectic material to the region of the bonding structure.
    • 所公开的半导体制造工艺包括在盖晶片的第一表面上形成第一接合结构,在器件晶片的第一表面上形成第二接合结构,并在器件晶片上形成器件结构。 在盖晶片,器件晶片或两者上形成一个或多个共晶流阻塞结构。 流动容纳结构可以包括流动容纳微空腔(FCMC)和流动容纳微堤(FCML)。 FCML可以是覆盖在器件晶片的第一表面上并且基本上平行于接合结构延伸的细长脊。 FCML可以包括位于结合结构的周边内部的内部FCML,位于结合结构周边外部的外部FCML或两者。 当两个晶片结合时,FCML和FCMC将共晶材料的流动限制在接合结构的区域。
    • 10. 发明申请
    • PRESSURE LEVEL ADJUSTMENT IN A CAVITY OF A SEMICONDUCTOR DIE
    • 在半导体芯片的压力水平调整
    • US20140225206A1
    • 2014-08-14
    • US13764246
    • 2013-02-11
    • Yizhen LinChad S. DawsonHemant D. DesaiLisa H. KarlinKeith L. KraverMark E. Schlarmann
    • Yizhen LinChad S. DawsonHemant D. DesaiLisa H. KarlinKeith L. KraverMark E. Schlarmann
    • B81B7/00B81B3/00
    • B81B7/0038B81B7/02B81C2203/0109
    • A semiconductor die (20) includes a substrate (30) and microelectronic devices (22, 26) located at a surface (32) of the substrate (30). A cap (34) is coupled to the substrate (30), and the microelectronic device (22) is positioned in the cavity (24). An outgassing material structure (36) is located within a cavity (24) between the cap (34) and the substrate (30). The outgassing material structure (36) releases trapped gas (37) to increase the pressure within the cavity (24) from an initial pressure level (96) to a second pressure level (94). The cap (34) may include another cavity (28) containing another microelectronic device (26). A getter material (42) may be located within the cavity (28). The getter material (42) is activated to absorb residual gas (46) in the cavity (28) and decrease the pressure within the cavity (28) from the initial pressure level (96) to a third pressure level (92).
    • 半导体管芯(20)包括位于衬底(30)的表面(32)处的衬底(30)和微电子器件(22,26)。 盖(34)耦合到基板(30),并且微电子器件(22)定位在空腔(24)中。 排气材料结构(36)位于盖(34)和基板(30)之间的空腔(24)内。 排气材料结构(36)释放截留的气体(37)以将空腔(24)内的压力从初始压力水平(96)增加到第二压力水平(94)。 盖(34)可以包括另一个包含另一微电子装置(26)的空腔(28)。 吸气材料(42)可以位于空腔(28)内。 吸气剂材料(42)被激活以吸收空腔(28)中的残余气体(46)并将空腔(28)内的压力从初始压力水平(96)降低到第三压力水平(92)。