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    • 71. 发明授权
    • Methods for forming and integrated circuit structures containing enhanced-surface-area conductive layers
    • 包含增强表面积导电层的形成方法和集成电路结构
    • US07253102B2
    • 2007-08-07
    • US10860341
    • 2004-06-02
    • Cem BasceriMark VisokayThomas M. GraettingerSteven D. Cummings
    • Cem BasceriMark VisokayThomas M. GraettingerSteven D. Cummings
    • H01L21/4763H01L21/44
    • H01L28/82H01L28/55
    • An enhanced-surface-area conductive layer compatible with high-dielectric constant materials is created by forming a film or layer having at least two phases, at least one of which is electrically conductive. The film may be formed in any convenient manner, such as by chemical vapor deposition techniques, which may be followed by an anneal to better define and/or crystallize the at least two phases. The film may be formed over an underlying conductive layer. At least one of the at least two phases is selectively removed from the film, such as by an etch process that preferentially etches at least one of the at least two phases so as to leave at least a portion of the electrically conductive phase. Ruthenium and ruthenium oxide, both conductive, may be used for the two or more phases. Iridium and its oxide, rhodium and its oxide, and platinum and platinum-rhodium may also be used. A wet etchant comprising ceric ammonium nitrate and acetic acid may be used. In the case of this etchant and a ruthenium/ruthenium oxide film, the etchant preferentially removes the ruthenium phase, leaving a pitted or “islanded” surface of ruthenium oxide physically and electrically connected by the underlying conductive layer. The remaining pitted or islanded layer, together with the underlying conductive layer, if any, constitutes an enhanced-surface-area conductive layer. The enhanced-surface-area conductive layer may be used to form a plate of a storage capacitor in an integrated circuit, such as in a memory cell of a DRAM or the like.
    • 与高介电常数材料兼容的增强表面积导电层是通过形成具有至少两个相的膜或层,其中至少一个导电层是导电的。 膜可以以任何方便的方式形成,例如通过化学气相沉积技术,其后可以进行退火以更好地限定和/或结晶至少两个相。 膜可以形成在下面的导电层上。 所述至少两个相中的至少一个相被选择性地从膜上移除,例如通过蚀刻工艺,其优先蚀刻至少两个相中的至少一个,以便留下导电相的至少一部分。 导电的钌和氧化钌可以用于两个或多个相。 也可以使用铱及其氧化物,铑及其氧化物,以及铂和铂 - 铑。 可以使用包含硝酸铈铵和乙酸的湿蚀刻剂。 在这种蚀刻剂和钌/氧化钌膜的情况下,蚀刻剂优先除去钌相,留下通过下面的导电层物理和电连接的氧化钌的凹陷或“孤立”的表面。 剩余的凹陷或孤岛层与下面的导电层(如果有的话)一起构成增强的表面积导电层。 增强表面积导电层可用于在诸如DRAM等的存储单元中的集成电路中形成存储电容器的板。
    • 72. 发明申请
    • Capacitor with high dielectric constant materials and method of making
    • 具有高介电常数材料和制作方法的电容器
    • US20060154382A1
    • 2006-07-13
    • US11346676
    • 2006-02-03
    • Cem BasceriGurtej SandhuMark Visokay
    • Cem BasceriGurtej SandhuMark Visokay
    • H01L21/00H01L21/20
    • H01L28/56H01L27/10811
    • Stabilized capacitors and DRAM cells using high dielectric constant oxide dielectric materials such as Ta2O5 and BaxSr(1-x)TiO3, and methods of making such capacitors and DRAM cells are provided. One method includes providing a conductive oxide electrode, oxidizing at least the upper surface of the conductive oxide electrode, depositing a first layer of a high dielectric constant oxide dielectric material on the conductive oxide electrode, oxidizing the first layer of the high dielectric constant oxide dielectric material under oxidizing conditions, depositing a second layer of the high dielectric constant oxide dielectric material on the first layer of the dielectric, and depositing an upper layer electrode on the second layer of the high dielectric constant oxide dielectric material.
    • 使用高介电常数氧化物介电材料如Ta 2 O 5和Ba x Sr(1-x)的稳定电容器和DRAM单元 )和提供制造这种电容器和DRAM单元的方法。 一种方法包括提供导电氧化物电极,至少氧化导电氧化物电极的上表面,在导电氧化物电极上沉积高介电常数氧化物电介质材料的第一层,氧化高介电常数氧化物电介质的第一层 在氧化条件下的材料,在所述电介质的第一层上沉积高介电常数氧化物介电材料的第二层,以及在所述高介电常数氧化物介电材料的第二层上沉积上层电极。
    • 76. 发明授权
    • Methods for forming and integrated circuit structures containing enhanced-surface-area conductive layers
    • 包含增强表面积导电层的形成方法和集成电路结构
    • US06764943B2
    • 2004-07-20
    • US10196535
    • 2002-07-15
    • Cem BasceriMark VisokayThomas M. GraettingerSteven D. Cummings
    • Cem BasceriMark VisokayThomas M. GraettingerSteven D. Cummings
    • H01L214763
    • H01L28/82H01L28/55
    • An enhanced-surface-area conductive layer compatible with high-dielectric constant materials is created by forming a film or layer having at least two phases, at least one of which is electrically conductive. The film may be formed in any convenient manner, such as by chemical vapor deposition techniques, which may be followed by an anneal to better define and/or crystallize the at least two phases. The film may be formed over an underlying conductive layer. At least one of the at least two phases is selectively removed from the film, such as by an etch process that preferentially etches at least one of the at least two phases so as to leave at least a portion of the electrically conductive phase. Ruthenium and ruthenium oxide, both conductive, may be used for the two or more phases. Iridium and its oxide, rhodium and its oxide, and platinum and platinum-rhodium may also be used. A wet etchant comprising ceric ammonium nitrate and acetic acid may be used. In the case of this etchant and a ruthenium/ruthenium oxide film, the etchant preferentially removes the ruthenium phase, leaving a pitted or “islanded” surface of ruthenium oxide physically and electrically connected by the underlying conductive layer. The remaining pitted or islanded layer, together with the underlying conductive layer, if any, constitutes an enhanced-surface-area conductive layer. The enhanced-surface-area conductive layer may be used to form a plate of a storage capacitor in an integrated circuit, such as in a memory cell of a DRAM or the like.
    • 与高介电常数材料兼容的增强表面积导电层是通过形成具有至少两个相的膜或层,其中至少一个导电层是导电的。 膜可以以任何方便的方式形成,例如通过化学气相沉积技术,其后可以进行退火以更好地限定和/或结晶至少两个相。 膜可以形成在下面的导电层上。 所述至少两个相中的至少一个相被选择性地从膜上移除,例如通过蚀刻工艺,其优先蚀刻至少两个相中的至少一个,以便留下导电相的至少一部分。 导电的钌和氧化钌可以用于两个或多个相。 也可以使用铱及其氧化物,铑及其氧化物,以及铂和铂 - 铑。 可以使用包含硝酸铈铵和乙酸的湿蚀刻剂。 在这种蚀刻剂和钌/氧化钌膜的情况下,蚀刻剂优先除去钌相,留下通过下面的导电层物理和电连接的氧化钌的凹陷或“孤立”的表面。 剩余的凹陷或孤岛层与下面的导电层(如果有的话)一起构成增强的表面积导电层。 增强表面积导电层可用于在诸如DRAM等的存储单元中的集成电路中形成存储电容器的板。
    • 78. 发明授权
    • Methods for forming and integrated circuit structures containing enhanced-surface-area conductive layers
    • 包含增强表面积导电层的形成方法和集成电路结构
    • US06482736B1
    • 2002-11-19
    • US09590791
    • 2000-06-08
    • Cem BasceriMark VisokayThomas M. GraettingerSteven D. Cummings
    • Cem BasceriMark VisokayThomas M. GraettingerSteven D. Cummings
    • H01L2120
    • H01L28/82H01L28/55
    • An enhanced-surface-area conductive layer compatible with high-dielectric constant materials is created by forming a film or layer having at least two phases, at least one of which is electrically conductive. The film may be formed in any convenient manner, such as by chemical vapor deposition techniques, which may be followed by an anneal to better define and/or crystallize the at least two phases. The film may be formed over an underlying conductive layer. At least one of the at least two phases is selectively removed from the film, such as by an etch process that preferentially etches at least one of the at least two phases so as to leave at least a portion of the electrically conductive phase. Ruthenium and ruthenium oxide, both conductive, may be used for the two or more phases. Iridium and its oxide, rhodium and its oxide, and platinum and platinum-rhodium may also be used. A wet etchant comprising ceric ammonium nitrate and acetic acid may be used. In the case of this etchant and a ruthenium/riruthenium oxide film, the etchant preferentially removes the ruthenium phase, leaving a pitted or “islanded” surface of ruthenium oxide physically and electrically connected by the underlying conductive layer. The remaining pitted or islanded layer, together with the underlying conductive layer, if any, constitutes an enhanced-surface-area conductive layer. The enhanced-surface-area conductive layer may be used to form a plate of a storage capacitor in an integrated circuit, such as in a memory cell of a DRAM or the like.
    • 与高介电常数材料兼容的增强表面积导电层是通过形成具有至少两个相的膜或层,其中至少一个导电层是导电的。 膜可以以任何方便的方式形成,例如通过化学气相沉积技术,其后可以进行退火以更好地限定和/或结晶至少两个相。 膜可以形成在下面的导电层上。 所述至少两个相中的至少一个相被选择性地从膜上移除,例如通过蚀刻工艺,其优先蚀刻至少两个相中的至少一个,以便留下导电相的至少一部分。 导电的钌和氧化钌可以用于两个或多个相。 也可以使用铱及其氧化物,铑及其氧化物,以及铂和铂 - 铑。 可以使用包含硝酸铈铵和乙酸的湿蚀刻剂。 在这种蚀刻剂和钌/氧化钌氧化物膜的情况下,蚀刻剂优先除去钌相,留下氧化钌的凹陷或“孤立”的表面通过下面的导电层物理和电连接。 剩余的凹陷或孤岛层与下面的导电层(如果有的话)一起构成增强的表面积导电层。 增强表面积导电层可用于在诸如DRAM等的存储单元中的集成电路中形成存储电容器的板。
    • 79. 发明授权
    • Use of dopants to provide low defect gate full silicidation
    • 使用掺杂剂提供低缺陷门全硅化
    • US08183137B2
    • 2012-05-22
    • US11752424
    • 2007-05-23
    • Mark VisokayJorge Adrian Kittl
    • Mark VisokayJorge Adrian Kittl
    • H01L21/22H01L21/38
    • H01L21/823835H01L21/28097H01L21/823864H01L29/4975H01L29/517H01L29/66545H01L29/6656H01L29/6659H01L29/7833
    • The disclosure provides a semiconductor device and method of manufacture therefore. The method for manufacturing the semiconductor device, in one embodiment, includes forming a layer of gate electrode material over a layer of gate dielectric material, wherein the layer of gate dielectric material is positioned over a substrate (210). This method further includes patterning the layer of gate electrode material and the layer of gate dielectric material into an NMOS gate structure (230), wherein the NMOS gate structure (230) includes an NMOS gate dielectric (240) and an NMOS gate electrode (250). This method further includes forming n-type source/drain regions (710) within the substrate (210) proximate the NMOS gate structure (230), and siliciding the NMOS gate electrode (250) to form a silicided gate electrode (1110, 1210). This method additionally includes placing a p-type dopant within the layer of gate electrode material or the NMOS gate electrode (250) prior to or concurrently with siliciding.
    • 因此,本公开提供了一种半导体器件及其制造方法。 在一个实施例中,用于制造半导体器件的方法包括在栅极电介质材料层上形成栅电极层,其中栅极电介质材料层位于衬底(210)上方。 该方法还包括将栅电极材料层和栅介电材料层图案化成NMOS栅极结构(230),其中NMOS栅极结构(230)包括NMOS栅极电介质(240)和NMOS栅电极(250) )。 该方法还包括在靠近NMOS栅极结构(230)的基底(210)内形成n型源极/漏极区(710),以及硅化NMOS栅电极(250)以形成硅化栅电极(1110,1210) 。 该方法还包括在硅化之前或同时将p型掺杂剂放置在栅电极材料或NMOS栅电极(250)的层内。