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    • 15. 发明授权
    • Method for selective resistivity adjustment of polycide lines for enhanced design flexibility and improved space utilization in sub-micron integrated circuits
    • 用于增强设计灵活性和改进亚微米集成电路空间利用率的多选线电阻率选择性电阻率调整方法
    • US06191018B1
    • 2001-02-20
    • US09224716
    • 1999-01-04
    • Wen-Jye YueHsun-Chih TsaoTzong-Sheng Chang
    • Wen-Jye YueHsun-Chih TsaoTzong-Sheng Chang
    • H01L214763
    • H01L28/20H01L27/0629
    • A method for forming a polycide layer wherein the silicide layer is blanket deposited over a polysilicon layer and selectively ion implanted through a mask to form regions of a higher resistivity than the masked regions. The implanted polycide layer is then annealed by RTA and patterned to form the conductors, gate electrodes and interconnects from the low resistivity regions and resistive components of an integrated circuit from the high resistivity regions. The capability of selecting from high and low resistive regions in a single polycide layer permits the design of resistive components with smaller areas than would be permitted if the resistive components were formed of a single low resistivity layer. This extra degree of freedom permits the designer to optimize device density and device performance without compromising either. The procedure utilizes a additional masking step utilizing a block-out mask.
    • 一种形成多晶硅化物层的方法,其中硅化物层被覆盖地沉积在多晶硅层上并且通过掩模选择性离子注入以形成比掩蔽区域更高的电阻率的区域。 然后将注入的多晶硅化合物层通过RTA进行退火并图案化以形成来自高电阻率区域的集成电路的低电阻率区域和电阻分量的导体,栅电极和互连。 在单个多晶硅层中从高和低电阻区域中选择的能力允许设计具有比允许的更小面积的电阻元件,如果电阻元件由单个低电阻率层形成。 这种额外的自由度允许设计人员优化设备密度和设备性能,而不会影响设备的性能。 该过程利用一个附加掩蔽步骤利用封锁掩模。
    • 17. 发明申请
    • Method to reduce leakage in a protection diode structure
    • 减少保护二极管结构泄漏的方法
    • US20100081249A1
    • 2010-04-01
    • US12592810
    • 2009-12-03
    • Bor-Zen TienTzong-Sheng ChangYung-Fu ShenJieh-Ting Chang
    • Bor-Zen TienTzong-Sheng ChangYung-Fu ShenJieh-Ting Chang
    • H01L21/762
    • H01L29/861H01L27/0255H01L29/0607H01L29/6609Y10S438/91
    • A method for forming a protection diode utilizes processing operations and materials used in the formation of the CMOS integrated circuit device and provides a protection diode used in CMOS integrated circuit devices to direct charged particles to benign locations and prevent damage to the devices. The protection diode includes a well region of a first conductivity type formed in a surface of a semiconductor substrate, a heavily doped P-type impurity region disposed within the well region, a heavily doped N-type impurity region disposed within the well region and an STI structure interposed therebetween. A top surface of the STI structure extends above the surface. A silicide resistant block-out layer is formed over the STI structure and extends laterally beyond the STI structure, covering any counterdoped sections that may undesirably be formed in the substrate adjacent the STI structure during implantation operations.
    • 用于形成保护二极管的方法利用了用于形成CMOS集成电路器件的处理操作和材料,并且提供了用于CMOS集成电路器件中的保护二极管,以将带电粒子引导到良性位置并防止对器件的损坏。 保护二极管包括形成在半导体衬底的表面中的第一导电类型的阱区,设置在阱区内的重掺杂P型杂质区,设置在阱区内的重掺杂N型杂质区和 STI结构。 STI结构的顶表面在表面上方延伸。 在STI结构上方形成硅化物阻挡层,横向延伸超过STI结构,覆盖在植入操作期间可能不期望地形成在邻近STI结构的衬底中的任何反向部分。
    • 18. 发明授权
    • Semiconductor device with reduced leakage protection diode
    • 具有减少漏电保护二极管的半导体器件
    • US07663164B2
    • 2010-02-16
    • US11044819
    • 2005-01-26
    • Bor-Zen TienTzong-Sheng ChangYung-Fu ShenJieh-Ting Chang
    • Bor-Zen TienTzong-Sheng ChangYung-Fu ShenJieh-Ting Chang
    • H01L27/10
    • H01L29/861H01L27/0255H01L29/0607H01L29/6609Y10S438/91
    • A protection diode is used in a CMOS integrated circuit device to direct charged particles to benign locations and prevent damage to the device. The protection diode includes a well region of a first conductivity type formed in a surface of a semiconductor substrate, a heavily doped P-type impurity region disposed within the well region, a heavily doped N-type impurity region disposed within the well region and an STI structure interposed therebetween. A top surface of the STI structure extends above the surface. A silicide resistant block-out layer is formed over the STI structure and extends laterally beyond the STI structure, covering any counterdoped sections that may undesirably be formed in the substrate adjacent the STI structure during implantation operations. The method for forming the structure utilizes processing operations and materials used in the formation of the CMOS integrated circuit device.
    • 在CMOS集成电路器件中使用保护二极管,以将带电粒子引导到良性位置,并防止损坏器件。 保护二极管包括形成在半导体衬底的表面中的第一导电类型的阱区,设置在阱区内的重掺杂P型杂质区,设置在阱区内的重掺杂N型杂质区和 STI结构。 STI结构的顶表面在表面上方延伸。 在STI结构上方形成硅化物阻挡层,横向延伸超过STI结构,覆盖在植入操作期间可能不期望地形成在邻近STI结构的衬底中的任何反向部分。 形成结构的方法利用了用于形成CMOS集成电路器件的处理操作和材料。
    • 19. 发明授权
    • Method to improve TiSix salicide formation
    • 改善TiSix自杀化合物形成的方法
    • US06294448B1
    • 2001-09-25
    • US09483932
    • 2000-01-18
    • Tzong-Sheng ChangHung-Chi TsaiBor-Zen Tien
    • Tzong-Sheng ChangHung-Chi TsaiBor-Zen Tien
    • H01L2144
    • H01L21/28518
    • A new method is provided for the formation of silicided layers over points of electrical contact that are required in MOSFET devices. The structure of the MOSFET gate electrode is formed, including LDD regions, gate spacers and source/drain regions. A layer of Resist Protective Oxide (RPO) is deposited over the structure and patterned leaving the RPO in place where the silicided layers are not to be formed and exposing surfaces on which salicided layers are to be formed. These surfaces are the surfaces of the substrate overlying the source and drain regions and the surface of the gate electrode. An extra As or BF2 implant is performed into the surface of the exposed regions after which the process of salicidation is performed following conventional processing steps.
    • 提供了一种新的方法,用于在MOSFET器件中需要的电接触点上形成硅化层。 形成MOSFET栅电极的结构,包括LDD区,栅极间隔区和源极/漏极区。 在该结构上沉积一层抗蚀保护氧化物(RPO),并将其图案化,使RPO保持在不要形成硅化物层的位置,并且要在其上形成水银层的暴露表面。 这些表面是覆盖源极和漏极区域以及栅电极表面的衬底的表面。 在暴露区域的表面进行额外的As或BF2植入物,之后在常规加工步骤之后执行盐化过程。