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    • 7. 发明授权
    • Process for improving mechanical strength of layers of low k dielectric material
    • 用于提高低k介电材料层的机械强度的方法
    • US06566244B1
    • 2003-05-20
    • US10138609
    • 2002-05-03
    • Charles E. MayVenkatesh P. GopinathPeter J. Wright
    • Charles E. MayVenkatesh P. GopinathPeter J. Wright
    • H01L214763
    • H01L23/562H01L21/76801H01L21/76829H01L23/53295H01L2924/0002H01L2924/00
    • A process for selectively reinforcing portions of a low k dielectric material which comprises first forming a low k dielectric layer, then forming openings in the low k layer in portions of the low k layer needing reinforcement, and then filling the openings with reinforcing material, preferably reinforcing material having a higher Young's modulus of elasticity than the low k dielectric material. Such selective reinforcement of certain portions of low k dielectric material may comprise selectively reinforcing the low k dielectric material beneath the bonding pads, with reinforcing material. The low k dielectric material may be reinforced by openings in the low k dielectric material formed beneath portions of the low k dielectric layer where a capping layer will be formed over the low k dielectric material. Subsequent formation of the capping layer will simultaneously fill the openings with capping material, which may then also function as reinforcement material in the openings.
    • 一种用于选择性地增强低k介电材料的部分的方法,其包括首先形成低k电介质层,然后在需要加强的低k层的部分中在低k层中形成开口,然后用增强材料填充开口,优选地 具有比低k介电材料更高的杨氏弹性模量的增强材料。 低k电介质材料的某些部分的这种选择性增强可以包括用增强材料选择性地增强接合焊盘下面的低k电介质材料。 低k电介质材料可以通过在低k电介质层的下部形成的低k电介质材料中的开口加强,其中覆盖层将形成在低k电介质材料上。 覆盖层的随后的形成将同时用封盖材料填充开口,该封盖材料然后也可以用作开口中的增强材料。
    • 9. 发明授权
    • High pressure N2 RTA process for TiS2 formation
    • 用于TiS2形成的高压N2 RTA工艺
    • US06348413B1
    • 2002-02-19
    • US09157855
    • 1998-09-21
    • Timothy Z. HossainCharles E. May
    • Timothy Z. HossainCharles E. May
    • H01L2144
    • H01L29/665H01L21/28518H01L21/324
    • In one aspect of the present invention, a method of forming a layer of silicide on a surface of a silicon-containing structure surface that is separated from a first structure by a second structure is provided. The method includes the steps of forming a layer of silicide-forming material on the surface of the silicon-containing structure, and the first and second structures. The layer of silicide-forming material is annealed in an ambient containing a nitrogen bearing species at a pressure greater than about one atmosphere to form the layer of silicide on the surface of the silicon-containing structure. The nitrogen bearing species reacts with the silicide-forming material to retard the formation of silicide on the third structure. The method reduces the potential for silicide bridging between, for example, the gate and source/drain regions of a transistor during silicide contact formation.
    • 在本发明的一个方面中,提供了在通过第二结构与第一结构分离的含硅结构表面的表面上形成硅化物层的方法。 该方法包括以下步骤:在含硅结构的表面上形成硅化物形成层,以及第一和第二结构。 硅化物形成材料层在含有含氮物质的环境中在大于约一个大气压的温度下退火,以在含硅结构的表面上形成硅化物层。 含氮物质与硅化物形成材料反应以阻止第三结构上的硅化物的形成。 该方法在硅化物接触形成期间降低例如晶体管的栅极和源极/漏极区域之间的硅化物桥接的可能性。
    • 10. 发明授权
    • Programmable read only memory in CMOS process flow
    • US06338992B1
    • 2002-01-15
    • US09726107
    • 2000-11-29
    • Shafqat AhmedHemanshu D. BhattCharles E. MayRobindranath Banerjee
    • Shafqat AhmedHemanshu D. BhattCharles E. MayRobindranath Banerjee
    • H01L218238
    • H01L27/112H01L21/8238
    • An improvement to a process for manufacturing complementary metal oxide semiconductor devices on a monolithic substrate, where the improved process forms nonvolatile memory devices and programmable logic devices. The improvement includes exposing gate electrodes of a selected portion of the complementary metal oxide semiconductor devices at a point in the process where the gate electrodes have been previously covered by a protective material layer. A capacitive material layer is deposited on the monolithic substrate, such that it contacts the exposed gate electrodes of the selected portion of the complementary metal oxide semiconductor devices. A top electrode material layer is deposited on the monolithic substrate, such that the top electrode material layer contacts the capacitive material layer in a region overlying the exposed gate electrodes of the selected portion of the complementary metal oxide semiconductor devices. The top electrode material layer and the capacitive material layer are removed to substantially the level of the upper surface of the protective material layer, thereby leaving the top electrode layer and the capacitive material layer overlying the gate electrodes for the selected portion of the complementary metal oxide semiconductor devices. In this manner, capacitors are formed from the top electrode material layer, the capacitive material layer, and the gate electrodes of the selected portion of the complementary metal oxide semiconductor devices. The improved process further includes forming nonvolatile memory devices from the selected portion of the complementary metal oxide semiconductor devices, and forming logic devices of the complementary metal oxide semiconductor devices that are not included in the selected portion of the complementary metal oxide semiconductor devices. Fuses are formed in associated with a portion of the nonvolatile memory devices to form read only memory devices of the fused portion of the nonvolatile memory devices.