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    • 6. 发明授权
    • Process options of forming silicided metal gates for advanced CMOS devices
    • 为先进的CMOS器件形成硅化金属栅的工艺选择
    • US07326610B2
    • 2008-02-05
    • US11271032
    • 2005-11-10
    • Ricky S. AmosDouglas A. BuchananCyril Cabral, Jr.Evgeni P. GousevVictor KuAn Steegen
    • Ricky S. AmosDouglas A. BuchananCyril Cabral, Jr.Evgeni P. GousevVictor KuAn Steegen
    • H01L21/31
    • H01L21/823842H01L21/76895H01L21/823835
    • Silicide is introduced into the gate region of a CMOS device through different process options for both conventional and replacement gate types processes. Placement of silicide in the gate itself, introduction of the silicide directly in contact with the gate dielectric, introduction of the silicide as a fill on top of a metal gate all ready in place, and introduction the silicide as a capping layer on polysilicon or on the existing metal gate, are presented. Silicide is used as an option to connect between PFET and NFET devices of a CMOS structure. The processes protect the metal gate while allowing for the source and drain silicide to be of a different silicide than the gate silicide. A semiconducting substrate is provided having a gate with a source and a drain region. A gate dielectric layer is deposited on the substrate, along with a metal gate layer. The metal gate layer is then capped with a silicide formed on top of the gate, and conventional formation of the device then proceeds. A second silicide may be employed within the gate. A replacement gate is made from two different metals (dual metal gate replacement) prior to capping with a silicide.
    • 硅化物通过不同的工艺选择被引入到CMOS器件的栅极区域,用于常规和替代栅极类型工艺。 将硅化物放置在栅极本身中,引入硅化物直接与栅极电介质接触,将硅化物作为填充物引入金属栅极顶部,并准备就绪,并将硅化物作为覆盖层引入到多晶硅上或 现有的金属门。 硅化物用作连接CMOS结构的PFET和NFET器件的选项。 该过程保护金属栅极,同时允许源极和漏极硅化物与栅极硅化物不同的硅化物。 提供了具有栅极和源极和漏极区域的半导体衬底。 栅极电介质层与金属栅极层一起沉积在衬底上。 然后用形成在栅极顶部上的硅化物对金属栅极层进行封装,然后继续进行常规的器件形成。 可以在栅极内使用第二硅化物。 在使用硅化物封盖之前,更换栅极由两种不同的金属(双金属栅极替代)制成。
    • 7. 发明授权
    • Process options of forming silicided metal gates for advanced CMOS devices
    • 为先进的CMOS器件形成硅化金属栅的工艺选择
    • US07029966B2
    • 2006-04-18
    • US10605261
    • 2003-09-18
    • Ricky S. AmosDouglas A. BuchananCyril Cabral, Jr.Evgeni P. GousevVictor KuAn Steegen
    • Ricky S. AmosDouglas A. BuchananCyril Cabral, Jr.Evgeni P. GousevVictor KuAn Steegen
    • H01L21/8238H01L21/3205H01L21/4763
    • H01L21/823842H01L21/76895H01L21/823835
    • Silicide is introduced into the gate region of a CMOS device through different process options for both conventional and replacement gate types processes. Placement of silicide in the gate itself, introduction of the silicide directly in contact with the gate dielectric, introduction of the silicide as a fill on top of a metal gate all ready in place, and introduction the silicide as a capping layer on polysilicon or on the existing metal gate, are presented. Silicide is used as an option to connect between PFET and NFET devices of a CMOS structure. The processes protect the metal gate while allowing for the source and drain silicide to be of a different silicide than the gate silicide. A semiconducting substrate is provided having a gate with a source and a drain region. A gate dielectric layer is deposited on the substrate, along with a metal gate layer. The metal gate layer is then capped with a silicide formed on top of the gate, and conventional formation of the device then proceeds. A second silicide may be employed within the gate. A replacement gate is made from two different metals (dual metal gate replacement) prior to capping with a silicide.
    • 硅化物通过不同的工艺选择被引入到CMOS器件的栅极区域,用于常规和替代栅极类型工艺。 将硅化物放置在栅极本身中,引入硅化物直接与栅极电介质接触,将硅化物作为填充物引入金属栅极顶部,并准备就绪,并将硅化物作为覆盖层引入到多晶硅上或 现有的金属门。 硅化物用作连接CMOS结构的PFET和NFET器件的选项。 该过程保护金属栅极,同时允许源极和漏极硅化物与栅极硅化物不同的硅化物。 提供了具有栅极和源极和漏极区域的半导体衬底。 栅极电介质层与金属栅极层一起沉积在衬底上。 然后用形成在栅极顶部上的硅化物对金属栅极层进行封装,然后继续进行常规的器件形成。 可以在栅极内使用第二硅化物。 在使用硅化物封盖之前,更换栅极由两种不同的金属(双金属栅极替代)制成。
    • 10. 发明授权
    • Method for etching chemically inert metal oxides
    • 蚀刻化学惰性金属氧化物的方法
    • US07887711B2
    • 2011-02-15
    • US10170914
    • 2002-06-13
    • Douglas A. BuchananEduard A. CartierEvgeni GousevHarald Okorn-SchmidtKatherine L. Saenger
    • Douglas A. BuchananEduard A. CartierEvgeni GousevHarald Okorn-SchmidtKatherine L. Saenger
    • B44C1/22H01L21/00
    • H01L21/31122Y10S438/924
    • A system and method for patterning metal oxide materials in a semiconductor structure. The method comprises a first step of depositing a layer of metal oxide material over a substrate. Then, a patterned mask layer is formed over the metal oxide layer leaving one or more first regions of the metal oxide layer exposed. The exposed first regions of the metal oxide layer are then subjected to an energetic particle bombardment process to thereby damage the first regions of the metal oxide layer. The exposed and damaged first regions of the metal oxide layer are then removed by a chemical etch. Advantageously, the system and method is implemented to provide high-k dielectric materials in small-scale semiconductor devices. Besides using the ion implantation damage (I/I damage) plus wet etch technique to metal oxides (including metal oxides not previously etchable by wet methods), other damage methods including lower energy, plasma-based ion bombardment, may be implemented. Plasma-based ion bombardment typically uses simpler and cheaper tooling, and results in less collateral damage to underlying structures as the damage profile can be more easily localized to the depth of the thin metal oxide film.
    • 一种在半导体结构中图案化金属氧化物材料的系统和方法。 该方法包括在衬底上沉积金属氧化物材料层的第一步骤。 然后,在金属氧化物层之上形成图案化掩模层,留下暴露金属氧化物层的一个或多个第一区域。 接着对金属氧化物层的暴露的第一区域进行高能粒子轰击处理,从而破坏金属氧化物层的第一区域。 然后通过化学蚀刻去除金属氧化物层的暴露和损坏的第一区域。 有利地,该系统和方法被实现以在小规模半导体器件中提供高k电介质材料。 除了使用离子注入损伤(I / I损伤)以及湿法蚀刻技术对金属氧化物(包括以前不能用湿法蚀刻的金属氧化物)外,还可以实施包括较低能量,基于等离子体的离子轰击等其他损伤方法。 基于等离子体的离子轰击通常使用更简单和更便宜的工具,并且导致对下面的结构的较少的附带损伤,因为损伤分布可以更容易地定位于薄金属氧化物膜的深度。