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    • 2. 发明授权
    • Semiconductor switching device and method of making the same
    • 半导体开关器件及其制造方法
    • US08642460B2
    • 2014-02-04
    • US13155757
    • 2011-06-08
    • Chih-Chao YangStephen A CohenBaozhen Li
    • Chih-Chao YangStephen A CohenBaozhen Li
    • H01L21/44
    • B82Y10/00H01L23/5252H01L29/413H01L2924/0002H01L2924/00
    • A switching device including a first dielectric layer having a first top surface, two conductive features embedded in the first dielectric layer, each conductive feature having a second top surface that is substantially coplanar with the first top surface of the first dielectric layer, and a set of discrete islands of a low diffusion mobility metal between the two conductive features. The discrete islands of the low diffusion mobility metal may be either on the first top surface or embedded in the first dielectric layer. The electric conductivity across the two conductive features of the switching device increases when a prescribed voltage is applied to the two conductive features. A method of forming such a switching device is also provided.
    • 一种开关装置,包括具有第一顶表面的第一介电层,嵌入在第一介电层中的两个导电特征,每个导电特征具有与第一介电层的第一顶表面基本上共面的第二顶表面,以及一组 在两个导电特征之间的低扩散迁移率金属的离散岛。 低扩散迁移率金属的离散岛可以在第一顶表面上或嵌入在第一介电层中。 当规定的电压施加到两个导电特征时,开关装置的两个导电特征的电导率增加。 还提供了一种形成这种开关装置的方法。
    • 3. 发明授权
    • Electrically programmable metal fuse
    • 电子可编程金属保险丝
    • US08421186B2
    • 2013-04-16
    • US13149108
    • 2011-05-31
    • Baozhen LiChunyan E. TianChih-Chao Yang
    • Baozhen LiChunyan E. TianChih-Chao Yang
    • H01L29/00H01L23/525H01H37/76
    • H01L23/5256G11C17/16G11C29/785H01L27/0207H01L2924/0002H01L2924/00
    • A metal electrically programmable fuse (“eFuse”) includes a metal strip, having a strip width, of a metal line adjoined to wide metal line portions, having widths greater than the metal strip width, at both ends of the metal strip. The strip width can be a lithographic minimum dimension, and the ratio of the length of the metal strip to the strip width is greater than 5 to localize heating around the center of the metal strip during programming. Localization of heating reduces required power for programming the metal eFuse. Further, a gradual temperature gradient is formed during the programming within a portion of the metal strip that is longer than the Blech length so that electromigration of metal gradually occurs reliably at the center portion of the metal strip. Metal line portions are provides at the same level as the metal eFuse to physically block debris generated during programming.
    • 金属电可编程保险丝(eFuse)包括在金属条的两端处具有与宽金属线部分相邻的金属线的具有宽度大于金属带宽度的宽度的金属带。 条带宽度可以是光刻最小尺寸,并且金属条带的长度与条带宽度的比率大于5以在编程期间定位围绕金属条的中心的加热。 加热的本地化减少了用于编程金属eFuse所需的电力。 此外,在金属带的长于Blech长度的部分内的编程期间形成逐渐的温度梯度,使得金属的电迁移在金属带的中心部分逐渐发生。 金属线部分提供与金属eFuse相同的水平,以物理阻挡编程期间产生的碎屑。
    • 7. 发明申请
    • DETERMINING CRITICAL CURRENT DENSITY FOR INTERCONNECT
    • 确定互连的关键电流密度
    • US20110115508A1
    • 2011-05-19
    • US12620955
    • 2009-11-18
    • Chad M. BurkeCathryn J. ChristiansenBaozhen Li
    • Chad M. BurkeCathryn J. ChristiansenBaozhen Li
    • G01R31/02
    • G01R31/2858
    • Solutions for determining a critical current density of a line are disclosed. In one embodiment a method of determining a critical current density in a line includes: applying a temperature condition to each of a plurality of samples including the line; calculating a cross-sectional area of the line for each of the plurality samples using data about an electrical resistance of the line over each of the temperature conditions; measuring an electrical current reading through the line for each of the plurality of samples; determining a current density through the line for each of the plurality of samples by dividing each electrical current reading by each corresponding cross-sectional area; determining an electromigration (EM) failure time for each of the plurality of samples; and determining the critical current density of the line using the current density and the plurality of EM failure times.
    • 公开了用于确定线的临界电流密度的解决方案。 在一个实施例中,确定线中的临界电流密度的方法包括:对包括线的多个样本中的每一个施加温度条件; 使用关于在每个温度条件下的线的电阻的数据来计算多个样本中的每个样本的线的横截面面积; 测量所述多个样本中的每一个的所述线的电流读数; 通过将每个电流读数除以每个对应的横截面积来确定通过所述多个样品中的每一个的所述线的电流密度; 确定所述多个样本中的每一个的电迁移(EM)故障时间; 以及使用电流密度和多个EM故障时间确定线路的临界电流密度。