会员体验
专利管家(专利管理)
工作空间(专利管理)
风险监控(情报监控)
数据分析(专利分析)
侵权分析(诉讼无效)
联系我们
交流群
官方交流:
QQ群: 891211   
微信请扫码    >>>
现在联系顾问~
热词
    • 2. 发明授权
    • ESD protection improvement
    • ESD保护改善
    • US5559352A
    • 1996-09-24
    • US354373
    • 1994-12-12
    • Chen-Chiu HsueJoe Ko
    • Chen-Chiu HsueJoe Ko
    • H01L27/02H01L29/76
    • H01L27/0266
    • A method of forming an ESD protection device with reduced breakdown voltage, simultaneously with an integrated circuit which includes FET devices, and the resultant device structure, are described. A silicon substrate is provided on which there are field oxide regions, gates, and active regions. A first ion implant of a conductivity-imparting dopant is performed in a vertical direction into the active regions of the ESD protection device and the FET devices. A first insulating layer is formed over the ESD protection device and the FET devices, and over the field oxide regions. The first insulating layer is patterned to create spacers adjacent to the gates of both the ESD protection device and the FET devices. A second ion implant of a conductivity-imparting dopant with higher concentration than dopant from the first ion implant is performed into active regions of both the ESD protection device and the FET devices. A second insulating layer is formed over the ESD protection device and the FET devices, and over the field oxide regions. The second insulating layer is patterned to form contact openings to the active regions. Finally, a third ion implant of a conductivity-imparting dopant, with opposite conductivity from the first and second ion implants, having equal concentration to dopant from the first ion implant, is performed through the contact openings into active regions of the ESD protection device.
    • 描述了与包括FET器件的集成电路同时形成具有降低的击穿电压的ESD保护器件的方法以及所得到的器件结构。 提供硅基板,其上有场氧化物区域,栅极和有源区域。 导电性赋予掺杂剂的第一离子注入在垂直方向上进入ESD保护器件和FET器件的有源区。 在ESD保护器件和FET器件上以及场氧化物区域上形成第一绝缘层。 图案化第一绝缘层以产生与ESD保护器件和FET器件的栅极相邻的间隔物。 与来自第一离子注入的掺杂剂相比,具有更高浓度的导电性赋予掺杂剂的第二离子注入被执行到ESD保护器件和FET器件的有源区。 在ESD保护器件和FET器件上以及场氧化物区域上形成第二绝缘层。 图案化第二绝缘层以形成到活性区的接触开口。 最后,通过所述接触开口将与所述第一和第二离子注入相反的具有与所述第一和第二离子注入物相反的导电性的第三离子注入与所述第一离子注入物的掺杂剂相同地进入到所述ESD保护器件的有源区。
    • 3. 发明授权
    • Self-aligned anti-punchthrough implantation process
    • 自对准抗穿透植入工艺
    • US5484743A
    • 1996-01-16
    • US394587
    • 1995-02-27
    • Joe KoChen-Chiu Hsue
    • Joe KoChen-Chiu Hsue
    • H01L21/336H01L29/10H01L29/78H01L21/265
    • H01L29/66583H01L29/1083H01L29/66537H01L29/7833
    • The invention relates to a method of forming an improved MOSFET device structure for use in ultra large scale integration devices. A local self-aligned anti-punchthrough region is formed directly under the gate electrode using ion implantation. The local anti-punchthrough region reduces the expansion of the depletion region in the channel and thereby increases the punchthrough voltage. The local anti-punchthrough region is self-aligned with the gate electrode and source/drain region so that critical spacings are maintained even for sub micron devices. Channel mobility is not degraded and the source and drain junction capacitances are reduced. The invention can be used in either N channel or P channel MOSFET devices, and in either LDD (light doped drain) or non-LDD devices.
    • 本发明涉及形成用于超大规模集成器件的改进的MOSFET器件结构的方法。 使用离子注入直接在栅极下方形成局部自对准的穿透区域。 局部抗穿透区域减小了通道中的耗尽区域的膨胀,从而增加穿透电压。 局部抗穿透区域与栅极电极和源极/漏极区域自对准,使得即使对于亚微米器件也保持临界间隔。 沟道迁移率不降低,源极和漏极结电容减小。 本发明可用于N沟道或P沟道MOSFET器件,以及LDD(轻掺杂漏极)或非LDD器件中。
    • 4. 发明授权
    • Method for ESD protection improvement
    • ESD保护方法的改进
    • US5374565A
    • 1994-12-20
    • US139858
    • 1993-10-22
    • Chen-Chiu HsueJoe Ko
    • Chen-Chiu HsueJoe Ko
    • H01L27/02H01L21/266
    • H01L27/0266
    • A method of forming an ESD protection device with reduced junction breakdown voltage, simultaneously with an integrated circuit which includes FET devices, and the resultant device structure, are described. A silicon substrate is provided on which there are field oxide regions, gates, and active regions. A first ion implant of a conductivity-imparting dopant is performed in a vertical direction into the active regions of the ESD protection device and the FET devices. A first insulating layer is formed over the ESD protection device and the FET devices, and over the field oxide regions. The first insulating layer is patterned to create spacers adjacent to the gates of both the ESD protection device and the FET devices. A second ion implant of a conductivity-imparting dopant with higher concentration than dopant from the first ion implant is performed into active regions of both the ESD protection device and the FET devices. A second insulating layer is formed over the ESD protection device and the FET devices, and over the field oxide regions. The second insulating layer is patterned to form contact openings to the active regions. Finally, a third ion implant of a conductivity-imparting dopant, with opposite conductivity from the first and second ion implants, having equal concentration to dopant from the first ion implant, is performed through the contact openings into active regions of the ESD protection device.
    • 描述了与包括FET器件的集成电路同时形成具有降低的结击穿电压的ESD保护器件的方法以及所得到的器件结构。 提供硅基板,其上有场氧化物区域,栅极和有源区域。 导电性赋予掺杂剂的第一离子注入在垂直方向上进入ESD保护器件和FET器件的有源区。 在ESD保护器件和FET器件上以及场氧化物区域上形成第一绝缘层。 图案化第一绝缘层以产生与ESD保护器件和FET器件的栅极相邻的间隔物。 与来自第一离子注入的掺杂剂相比,具有更高浓度的导电性赋予掺杂剂的第二离子注入被执行到ESD保护器件和FET器件的有源区。 在ESD保护器件和FET器件上以及场氧化物区域上形成第二绝缘层。 图案化第二绝缘层以形成到活性区的接触开口。 最后,通过所述接触开口将与所述第一和第二离子注入相反的具有与所述第一和第二离子注入物相反的导电性的第三离子注入与所述第一离子注入物的掺杂剂相同地进入到所述ESD保护器件的有源区。
    • 7. 发明授权
    • Method for forming a metal capacitor in a damascene process
    • 在镶嵌工艺中形成金属电容器的方法
    • US06492226B1
    • 2002-12-10
    • US09880849
    • 2001-06-15
    • Chen-Chiu HsueShyh-Dar Lee
    • Chen-Chiu HsueShyh-Dar Lee
    • H01L218264
    • H01L28/55H01L21/76838H01L28/60
    • This invention provides a method for forming a metal capacitor in a damascene process. Before the thin-film capacitor is formed, the underlying interconnections are fabricated with Cu metal by damascene process. The lower electrode is formed in a dual damascene process, which is also used to form the dual damascene structures comprising wires and plugs. An insulator is disposed to isolate the dual damascene structures with each other. In this dual damascene process, an anti-reflection layer is used and formed on the insulator, and the anti-reflection layer is also used as a hard mask layer, a polishing stop layer and an etching stop layer. Then, another insulator and a metal layer are formed on the anti-reflection layer, and encounter a photolithography step and an etching step to obtain an upper electrode and a capacitor insulator. After forming the metal capacitor, the upper interconnections are fabricated with another dual damascene processes.
    • 本发明提供了一种在镶嵌工艺中形成金属电容器的方法。 在形成薄膜电容器之前,通过镶嵌工艺用Cu金属制造下面的互连。 下电极形成为双镶嵌工艺,其也用于形成包括电线和插头的双镶嵌结构。 布置绝缘体以将双镶嵌结构彼此隔离。 在这种双镶嵌工艺中,在绝缘体上使用并形成防反射层,并且抗反射层也用作硬掩模层,抛光停止层和蚀刻停止层。 然后,在防反射层上形成另一绝缘体和金属层,并且经历光刻步骤和蚀刻步骤以获得上电极和电容器绝缘体。 在形成金属电容器之后,上互连用另外的双镶嵌工艺制造。
    • 9. 发明授权
    • Method for forming a metal capacitor in a damascene process
    • 在镶嵌工艺中形成金属电容器的方法
    • US06410386B1
    • 2002-06-25
    • US09881102
    • 2001-06-15
    • Chen-Chiu HsueShyh-Dar LeeJen-Hann Tsai
    • Chen-Chiu HsueShyh-Dar LeeJen-Hann Tsai
    • H01L218242
    • H01L28/55H01L21/76807H01L21/76838
    • A method for forming a metal capacitor in a damascene process is provided. Before the metal capacitor is formed, the underlying interconnections are fabricated with Cu metal by damascene processes. The capacitor is formed by depositing a first metal layer, an insulator and a second metal layer. The stacked layers are then subjected to a masking process and an etching process to form the thin-film capacitor and the metal wire with the remaining insulator and the remaining second metal layer thereon. The remaining second metal layer located on the metal wire is removed by another masking process and another etching process. After forming the capacitor and the metal wire, the upper interconnections are fabricated with Cu metal by damascene processes.
    • 提供了一种在镶嵌工艺中形成金属电容器的方法。 在形成金属电容器之前,通过镶嵌工艺用Cu金属制造下面的互连。 电容器通过沉积第一金属层,绝缘体和第二金属层而形成。 然后对堆叠的层进行掩模处理和蚀刻处理,以在其上形成剩余绝缘体和剩余的第二金属层的薄膜电容器和金属线。 位于金属线上的剩余的第二金属层通过另一掩模工艺和另一蚀刻工艺被去除。 在形成电容器和金属线之后,通过镶嵌工艺用Cu金属制造上部互连。