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    • 1. 发明授权
    • Implant sequence for multi-function semiconductor structure and method
    • 多功能半导体结构和方法的种植体序列
    • US06440788B2
    • 2002-08-27
    • US09895159
    • 2001-07-02
    • Jack A. MandelmanEdward J. NowakWilliam R. Tonti
    • Jack A. MandelmanEdward J. NowakWilliam R. Tonti
    • H01L2710
    • H01L29/7302H01L21/84H01L27/1203
    • A multi-function semiconductor device is provided. The device includes a bipolar transistor and an FET formed in parallel. A semiconductor substrate is provided on an insulating layer. A source/emitter region and a drain region are formed in the semiconductor substrate and border first opposite sides of a body region therebetween. A gate is formed above the substrate between the source/emitter region and the drain region to form an FET having three terminals including the gate, the source/emitter region, and the drain region. A collector region is formed in the substrate abutting the drain region and extending further under the gate and the drain region. A bipolar transistor having three terminals is formed including a base region, the source/emitter, and the collector region. A shortest distance between the collector region and the source/emitter region defines a base width.
    • 提供了多功能半导体器件。 该器件包括并联形成的双极晶体管和FET。 半导体衬底设置在绝缘层上。 源极/发射极区域和漏极区域形成在半导体衬底中并且与其间的体区域的第一相对侧边界。 在源极/发射极区域和漏极区域之间的衬底上方形成栅极,以形成具有包括栅极,源极/发射极区域和漏极区域的三个端子的FET。 集电极区域形成在与衬底邻接的衬底中,并在栅极和漏极区域之下进一步延伸。 形成具有三个端子的双极晶体管,其包括基极区域,源极/发射极和集电极区域。 集电极区域和源极/发射极区域之间的最短距离定义基极宽度。
    • 3. 发明授权
    • Multi-function semiconductor structure and method
    • 多功能半导体结构及方法
    • US06255694B1
    • 2001-07-03
    • US09484198
    • 2000-01-18
    • Jack A. MandelmanEdward J. NowakWilliam R. Tonti
    • Jack A. MandelmanEdward J. NowakWilliam R. Tonti
    • H01L2701
    • H01L29/7302H01L21/84H01L27/1203
    • A multi-function semiconductor device is provided. The device includes a bipolar transistor and an FET formed in parallel. A semiconductor substrate is provided on an insulating layer. A source/emitter region and a drain region are formed in the semiconductor substrate and border first opposite sides of a body region therebetween. A gate is formed above the substrate between the source/emitter region and the drain region to form an FET having three terminals including the gate, the source/emitter region, and the drain region. A collector region is formed in the substrate abutting the drain region and extending further under the gate and the drain region. A bipolar transistor having three terminals is formed including a base region, the source/emitter, and the collector region. A shortest distance between the collector region and the source/emitter region defines a base width.
    • 提供了多功能半导体器件。 该器件包括并联形成的双极晶体管和FET。 半导体衬底设置在绝缘层上。 源极/发射极区域和漏极区域形成在半导体衬底中并且与其间的体区域的第一相对侧边界。 在源极/发射极区域和漏极区域之间的衬底上方形成栅极,以形成具有包括栅极,源极/发射极区域和漏极区域的三个端子的FET。 集电极区域形成在与衬底邻接的衬底中,并在栅极和漏极区域之下进一步延伸。 形成具有三个端子的双极晶体管,其包括基极区域,源极/发射极和集电极区域。 集电极区域和源极/发射极区域之间的最短距离定义基极宽度。
    • 9. 发明申请
    • Doped Single Crystal Silicon Silicided eFuse
    • 掺杂单晶硅硅胶eFuse
    • US20080153278A1
    • 2008-06-26
    • US12043226
    • 2008-03-06
    • Edward J. NowakJed H. RankinWilliam R. TontiRichard Q. Williams
    • Edward J. NowakJed H. RankinWilliam R. TontiRichard Q. Williams
    • H01L21/84
    • H01L27/10H01L23/5256H01L2924/0002H01L2924/3011H01L2924/00
    • An eFuse begins with a single crystal silicon-on-insulator (SOI) structure that has a single crystal silicon layer on a first insulator layer. The single crystal silicon layer is patterned into a strip. Before or after the patterning, the single crystal silicon layer is doped with one or more impurities. At least an upper portion of the single crystal silicon layer is then silicided to form a silicided strip. In one embodiment the entire single crystal silicon strip is silicided to create a silicide strip. Second insulator(s) is/are formed on the silicide strip, so as to isolate the silicided strip from surrounding structures. Before or after forming the second insulators, the method forms electrical contacts through the second insulators to ends of the silicided strip. By utilizing a single crystal silicon strip, any form of semiconductor, such as a diode, conductor, insulator, transistor, etc. can form the underlying portion of the fuse structure. The overlying silicide material allows the fuse to act as a conductor in its unprogrammed state. However, contrary to metal or polysilicon based eFuses which only comprise an insulator in the programmed state, when the inventive eFuse is programmed (and the silicide is moved or broken) the underlying semiconductor structure operates as an active semiconductor device.
    • eFuse从在第一绝缘体层上具有单晶硅层的单晶硅绝缘体(SOI)结构开始。 将单晶硅层图案化成条带。 在构图之前或之后,单晶硅层掺杂有一种或多种杂质。 至少单晶硅层的上部然后被硅化以形成硅化带。 在一个实施例中,整个单晶硅带被硅化以产生硅化物条。 在硅化物条上形成第二绝缘体,从而将硅化物带与周围结构隔离。 在形成第二绝缘体之前或之后,该方法通过第二绝缘体形成与硅化带的端部的电接触。 通过使用单晶硅条,任何形式的半导体,例如二极管,导体,绝缘体,晶体管等都可以形成熔丝结构的下面部分。 上覆的硅化物材料允许熔丝作为未编程状态的导体。 然而,与仅编程状态的仅包含绝缘体的金属或多晶硅基eFuse相反,当本发明的eFuse被编程(并且硅化物被移动或断开)时,下面的半导体结构作为有源半导体器件工作。
    • 10. 发明授权
    • Doped single crystal silicon silicided eFuse
    • 掺杂单晶硅硅片eFuse
    • US07382036B2
    • 2008-06-03
    • US11161320
    • 2005-07-29
    • Edward J. NowakJed H. RankinWilliam R. TontiRichard Q. Williams
    • Edward J. NowakJed H. RankinWilliam R. TontiRichard Q. Williams
    • H01L27/148
    • H01L27/10H01L23/5256H01L2924/0002H01L2924/3011H01L2924/00
    • An eFuse begins with a single crystal silicon-on-insulator (SOI) structure that has a single crystal silicon layer on a first insulator layer. The single crystal silicon layer is patterned into a strip. Before or after the patterning, the single crystal silicon layer is doped with one or more impurities. At least an upper portion of the single crystal silicon layer is then silicided to form a silicided strip. In one embodiment the entire single crystal silicon strip is silicided to create a silicide strip. Second insulator(s) is/are formed on the silicide strip, so as to isolate the silicided strip from surrounding structures. Before or after forming the second insulators, the method forms electrical contacts through the second insulators to ends of the silicided strip. By utilizing a single crystal silicon strip, any form of semiconductor, such as a diode, conductor, insulator, transistor, etc. can form the underlying portion of the fuse structure. The overlying silicide material allows the fuse to act as a conductor in its unprogrammed state. However, contrary to metal or polysilicon based eFuses which only comprise an insulator in the programmed state, when the inventive eFuse is programmed (and the silicide is moved or broken) the underlying semiconductor structure operates as an active semiconductor device.
    • eFuse从在第一绝缘体层上具有单晶硅层的单晶硅绝缘体(SOI)结构开始。 将单晶硅层图案化成条带。 在构图之前或之后,单晶硅层掺杂有一种或多种杂质。 至少单晶硅层的上部然后被硅化以形成硅化带。 在一个实施例中,整个单晶硅带被硅化以产生硅化物条。 在硅化物条上形成第二绝缘体,从而将硅化物带与周围结构隔离。 在形成第二绝缘体之前或之后,该方法通过第二绝缘体形成与硅化带的端部的电接触。 通过使用单晶硅条,任何形式的半导体,例如二极管,导体,绝缘体,晶体管等都可以形成熔丝结构的下面部分。 上覆的硅化物材料允许熔丝作为未编程状态的导体。 然而,与仅编程状态的仅包含绝缘体的金属或多晶硅基eFuse相反,当本发明的eFuse被编程(并且硅化物被移动或断开)时,下面的半导体结构作为有源半导体器件工作。