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    • 1. 发明授权
    • Semiconductor structure using local planarization with self-aligned
transistors
    • 半导体结构采用局部平面化与自对准晶体管
    • US5477074A
    • 1995-12-19
    • US294228
    • 1994-08-22
    • Ting-Pwu Yen
    • Ting-Pwu Yen
    • H01L21/3205H01L21/768H01L21/8238H01L27/092H01L23/48
    • H01L21/76895C03C15/00Y10S148/133
    • A CMOS integrated circuit uses self-aligned transistors combined with local planarization in the vicinity of the transistors so as allow local interconnects which are free of bridging, have good continuity over the planarized topography and are compatible with the self-alignment schemes, hence conserving chip real estate. After formation of self-aligned insulated transistor gates and active transistor regions, the integrated circuit structure is planarized by formation of an oxide layer and a reflowed overlying glass layer. The glass layer and underlying oxide layer are removed only in the area of the buried contact, while an overlying metal or polysilicon conductive layer contacts the upper surface of certain of the transistor gate structures, the topside insulating layer of which has been removed for this purpose.
    • CMOS集成电路使用与晶体管附近的局部平坦化结合的自对准晶体管,从而允许不具有桥接的局部互连,在平坦化地形上具有良好的连续性,并且与自对准方案兼容,因此节省芯片 房地产。 在形成自对准绝缘晶体管栅极和有源晶体管区域之后,通过形成氧化物层和回流的上覆玻璃层来平坦化集成电路结构。 玻璃层和下面的氧化物层仅在掩埋触点的区域中被去除,而上覆的金属或多晶硅导电层接触某些晶体管栅极结构的上表面,其顶面绝缘层为此目的被去除 。
    • 2. 发明授权
    • Semiconductor fabrication technique using local planarization with
self-aligned transistors
    • 使用具有自对准晶体管的局部平坦化的半导体制造技术
    • US5340774A
    • 1994-08-23
    • US013466
    • 1993-02-04
    • Ting-Pwu Yen
    • Ting-Pwu Yen
    • H01L21/3205H01L21/768H01L21/8238H01L27/092H01L21/283
    • H01L21/76895C03C15/00Y10S148/133
    • A CMOS integrated circuit fabrication technique for forming self-aligned transistors combined with local planarization in the vicinity of the transistors so as to allow local interconnects which are free of bridging, have good continuity over the planarized topography and are compatible with the self-alignment schemes, hence conserving chip real estate. The technique is compatible with planarization schemes using BPSG, BPTEOS, SOG or CMP. After formation of self-aligned insulated transistor gates and active transistor regions, the integrated circuit structure is planarized by formation of an oxide layer and a reflowed overlying glass layer. The glass layer is etched back to planarize the surface. Using a buried contact mask the remaining portions of the glass layer and underlying oxide layer are removed in the area of the buried contact only. In one version (prior to formation of the oxide layer and glass layer) a polysilicon "landing pad" is formed on the substrate at the buried contact location so as to allow more effective etching at the exact location of the buried contact.
    • 一种CMOS集成电路制造技术,用于形成与晶体管附近的局部平坦化结合的自对准晶体管,以便允许不具有桥接的局部互连,在平坦化地形上具有良好的连续性,并且与自对准方案兼容 ,因此节省了芯片的不动产。 该技术与使用BPSG,BPTEOS,SOG或CMP的平面化方案兼容。 在形成自对准绝缘晶体管栅极和有源晶体管区域之后,通过形成氧化物层和回流的上覆玻璃层来平坦化集成电路结构。 将玻璃层回蚀刻以使表面平坦化。 使用掩埋接触掩模,玻璃层和下面的氧化物层的剩余部分仅在掩埋接触区域中被去除。 在一个版本中(在形成氧化物层和玻璃层之前),在掩埋接触位置处的衬底上形成多晶硅“着陆焊盘”,以便在掩埋触点的确切位置允许更有效的蚀刻。
    • 4. 发明授权
    • Edge metal for interconnect layers
    • 用于互连层的边缘金属
    • US5977638A
    • 1999-11-02
    • US754521
    • 1996-11-21
    • T. J. RodgersSam GehaChris PettiTing-Pwu Yen
    • T. J. RodgersSam GehaChris PettiTing-Pwu Yen
    • H01L21/3205H01L21/768H01L21/8244H01L23/528H01L27/11H01L23/48H01L21/44
    • H01L27/11H01L21/32051H01L21/76838H01L21/76885H01L23/528H01L27/1104H01L2924/0002
    • A method of forming edge metal lines to interconnect features in a semiconductor device. One embodiment comprises the steps of: patterning a first insulating layer to form a first feature having a first sidewall; depositing a metal layer over the first feature; and etching the metal layer so that a first edge metal line is formed adjacent to the first sidewall. The edge metal line may be substantially anisotropically etched to form the edge metal line. The edge metal line may comprise a plurality of metal layers. The edge metal line may also interconnect features in a semiconductor device (e.g., contacts). The method may further comprise the step of forming a protective coating over a portion of the metal layer such that the etching step may form a metal interconnect line and the edge metal line from the same metal layer. The metal interconnect line may comprise a bus that may have more current carrying capacity than the edge metal line.
    • 一种形成边缘金属线以在半导体器件中互连特征的方法。 一个实施例包括以下步骤:图案化第一绝缘层以形成具有第一侧壁的第一特征; 在第一特征上沉积金属层; 并且蚀刻所述金属层,使得与所述第一侧壁相邻地形成第一边缘金属线。 边缘金属线可以被基本上各向异性地蚀刻以形成边缘金属线。 边缘金属线可以包括多个金属层。 边缘金属线还可以互连半导体器件(例如,触点)中的特征。 该方法还可以包括在金属层的一部分上形成保护涂层的步骤,使得蚀刻步骤可以从同一金属层形成金属互连线和边缘金属线。 金属互连线可以包括可以具有比边缘金属线更多的载流能力的总线。
    • 7. 发明申请
    • TERNARY CONTENT ADDRESSABLE MEMORY (TCAM) CELLS WITH SMALL FOOTPRINT SIZE AND EFFICIENT LAYOUT ASPECT RATIO
    • 三维内容可寻址记忆体(TCAM)细胞,具有小的尺寸和有效的布局宽度比
    • US20050135134A1
    • 2005-06-23
    • US10609756
    • 2003-06-30
    • Ting-Pwu YenKee Park
    • Ting-Pwu YenKee Park
    • G11C15/04G11C15/00
    • G11C15/04
    • Ternary CAM cells are provided that have extremely small layout footprint size and efficient layout aspect ratios that enhance scalability. The cells also have high degrees of symmetry that facilitate high yield interconnections to bit, data and match lines. A 16T ternary CAM cell includes first and second pairs of access transistors that extend adjacent a first side of the cell, and first and second pairs of cross-coupled inverters that extend adjacent a second side of the cell. First and second halves of a 4T compare circuit are also provided. The first half of the 4T compare circuit is positioned so that is extends between the first pair of access transistors and the first pair of cross-coupled inverters. Similarly, the second half of the 4T compare circuit is positioned so that it extends between the second pair of access transistors and the second pair of cross-coupled inverters.
    • 提供三进制CAM单元,其具有非常小的布局尺寸和有效的布局纵横比,从而提高可扩展性。 这些单元还具有高度的对称性,可以实现位,数据和匹配线的高产出互连。 16T三元CAM单元包括在单元的第一侧附近延伸的第一和第二对存取晶体管,以及在单元的第二面附近延伸的第一和第二对交叉耦合的反相器。 还提供了4T比较电路的第一和第二半。 定位4T比较电路的前半部分,使其在第一对存取晶体管和第一对交叉耦合的反相器之间延伸。 类似地,4T比较电路的第二半被定位成使得其在第二对存取晶体管和第二对交叉耦合的反相器之间延伸。
    • 8. 发明授权
    • Method of fabricating a high resistance polysilicon load resistor
    • 制造高阻多晶硅负载电阻的方法
    • US5168076A
    • 1992-12-01
    • US724008
    • 1991-07-01
    • Norman GodinhoFrank T. LeeHsiang-Wen ChenRichard F. MottaJuine-Kai TsangJoseph TzouJai-man BaikTing-Pwu Yen
    • Norman GodinhoFrank T. LeeHsiang-Wen ChenRichard F. MottaJuine-Kai TsangJoseph TzouJai-man BaikTing-Pwu Yen
    • H01L21/82H01L27/11
    • H01L27/1112H01L21/82Y10S148/136
    • A load resistor for use in a semiconductor integrated circuit consists of two portions of conductive material, typically strips of either a silicide or a composite polycrystalline silicon layer and silicide layer formed thereon, formed on a semiconductor substrate and separated from each other by a selected distance. An electrically conductive dopant diffusion barrier is formed on the first and second portions of conductive material. A polycrystalline silicon material is then placed on the structure such that one portion of the polycrystalline silicon material is in ohmic contact through the diffusion barrier with the first portion of conductive material and the other portion of the polycrystalline silicon material is in ohmic contact through the diffusion barrier with the second portion of conductive material. Typically the polycrystalline silicon material is placed on an insulation layer formed on the semiconductor substrate in the portion of the substrate between the two portions of conductive material. The diffusion barrier prevents any dopant from the conductive material from diffusing into the polycrystalline silicon material thereby allowing the polycrystalline silicon material to function as a load resistor having a high resistance in the giga-ohms range. Subsequent high temperature processing of the structure does not change the resistance of the polycrystalline silicon because the dopant diffusion barrier prevents any dopant from the underlying conductive material from diffusing into the polycrystalline silicon material.
    • 用于半导体集成电路的负载电阻器由导电材料的两部分组成,通常形成在半导体衬底上的硅化物或复合多晶硅层以及形成在其上的硅化物层的条带,并且彼此间隔一定距离 。 在导电材料的第一和第二部分上形成导电掺杂剂扩散阻挡层。 然后将多晶硅材料放置在结构上,使得多晶硅材料的一部分与导电材料的第一部分通过扩散阻挡层欧姆接触,并且多晶硅材料的另一部分通过扩散而欧姆接触 与导电材料的第二部分隔离。 通常,多晶硅材料放置在形成在半导体衬底上的导电材料的两部分之间的衬底部分中的绝缘层上。 扩散阻挡层阻止来自导电材料的任何掺杂剂扩散到多晶硅材料中,从而允许多晶硅材料用作在千兆欧范围内具有高电阻的负载电阻器。 结构的随后的高温处理不会改变多晶硅的电阻,因为掺杂剂扩散势垒阻止来自下面的导电材料的任何掺杂剂扩散到多晶硅材料中。