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    • 12. 发明授权
    • Method of fabricating EPROM memory by individually forming gate oxide
and coupling insulator
    • 通过单独形成栅氧化物和耦合绝缘体来制造EPROM存储器的方法
    • US5716874A
    • 1998-02-10
    • US603248
    • 1996-02-20
    • Joe KoGary HongChih-Hung Lin
    • Joe KoGary HongChih-Hung Lin
    • H01L21/336H01L21/8247
    • H01L29/66825
    • A method of fabricating an EPROM memory increases a coupling ratio and reduces lateral diffusion by forming a gate oxide layer and a coupling insulator individually. A substrate is provided with a field oxide layer to isolate a predetermined active area. A gate oxide layer is formed on the substrate. On the field oxide layer and the gate oxide layer, a polysilicon layer is deposited and defined, whereby a portion of this polysilicon layer and gate oxide layer form a gate electrode. Using the gate electrode as a mask, the substrate is implanted with impurities to provide source and drain electrodes. A dielectric layer is formed on polysilicon layer. A contact window (via) is formed in a predetermined area of dielectric layer. An insulator is deposited and defined by etching, on dielectric layer and the contact window. On the insulator and dielectric layer, a metal contact layer is deposited and defined to cover the insulator.
    • 制造EPROM存储器的方法通过单独形成栅极氧化物层和耦合绝缘体来增加耦合比并减小横向扩散。 衬底设置有场氧化物层以隔离预定的有效面积。 在衬底上形成栅氧化层。 在场氧化物层和栅极氧化物层上沉积并限定多晶硅层,由此该多晶硅层和栅极氧化物层的一部分形成栅电极。 使用栅电极作为掩模,衬底被注入杂质以提供源极和漏极。 介电层形成在多晶硅层上。 在电介质层的预定区域中形成接触窗(通孔)。 通过在电介质层和接触窗上进行蚀刻来沉积并限定绝缘体。 在绝缘体和电介质层上,沉积和限定金属接触层以覆盖绝缘体。
    • 13. 发明授权
    • Buried structure SRAM cell and methods for fabrication
    • 埋地结构SRAM单元及其制造方法
    • US5821629A
    • 1998-10-13
    • US501711
    • 1995-07-12
    • Jemmy WenJoe Ko
    • Jemmy WenJoe Ko
    • H01L21/76H01L21/762H01L21/8244H01L27/11
    • H01L27/1112H01L21/76H01L21/76202H01L27/11Y10S257/904
    • An improved SRAM cell having ultra-high density and methods for fabrication are described. Each SRAM cell, according to the present invention, has its own buried structure, including word lines (i.e., gate regions) and bit lines (i.e., source/drain regions), thus increasing the cell ratio of channel width of cell transistor to that of pass transistor to keep the data stored in the cell transistor more stable without increasing the area per cell. In addition, according to the present invention, the field isolation between active regions is not field oxide but blankly ion-implanted silicon substrate. Therefore, SRAM cells can be densely integrated due to the absence of bird's beak encroachment. Since the present invention has more planar topography than the prior art, it is easily adapted to the VLSI process, which is always restricted by the limit of resolution of photolithography, thus increasing the degree of integration.
    • 描述了具有超高密度的改进的SRAM单元和制造方法。 根据本发明的每个SRAM单元具有其自己的掩埋结构,包括字线(即,栅极区)和位线(即,源极/漏极区),从而将单元晶体管的沟道宽度的单元比增加到 的传输晶体管,以保持存储在单元晶体管中的数据更稳定,而不增加每个单元的面积。 此外,根据本发明,有源区之间的场隔离不是场氧化物而是空心离子注入的硅衬底。 因此,由于没有鸟喙侵入,SRAM单元可以密集地集成。 由于本发明具有比现有技术更平坦的形貌,所以易于适应于VLSI工艺,VLSI工艺总是受到光刻分辨率的限制,从而增加了集成度。
    • 14. 发明授权
    • Local punchthrough stop for ultra large scale integration devices
    • 超大规模集成设备的本地突破
    • US5686321A
    • 1997-11-11
    • US647266
    • 1996-05-06
    • Joe KoChih-Hung Lin
    • Joe KoChih-Hung Lin
    • H01L21/336H01L29/10H01L29/78H01L21/265
    • H01L29/66583H01L29/1083H01L29/66537H01L29/66553H01L29/7833
    • The invention relates to an improved MOSFET device structure for use in ultra large scale integration and the method of forming the device structure. A local punchthrough stop region is formed directly under the gate electrode using ion implantation. The local punchthrough stop region reduces the expansion of the depletion region in the channel and thereby increases the punchthrough voltage. The local punchthrough stop region is self-aligned with the gate electrode and source/drain region so that critical spacings are maintained even for sub micron devices. The source and drain junction capacitances are also reduced. The invention can be used in either N channel or P channel MOSFET devices. The invention can be used with a conventional source/drain structure as well as a double doped drain structure and a light doped drain structure.
    • 本发明涉及用于超大规模集成的改进的MOSFET器件结构以及形成器件结构的方法。 使用离子注入在栅电极正下方形成局部穿通停止区域。 局部穿通停止区域减小了通道中耗尽区的扩展,从而增加了穿透电压。 局部穿通停止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。 源极和漏极结电容也减小。 本发明可用于N沟道或P沟道MOSFET器件。 本发明可以与传统的源极/漏极结构以及双掺杂漏极结构和掺杂掺杂的漏极结构一起使用。
    • 15. 发明授权
    • Maskless method for formation of a field implant channel stop region
    • 用于形成场注入通道停止区域的无掩模方法
    • US5518941A
    • 1996-05-21
    • US312122
    • 1994-09-26
    • Chih-Hung LinJoe Ko
    • Chih-Hung LinJoe Ko
    • H01L21/336H01L21/762H01L21/265
    • H01L29/6659H01L21/76202
    • This invention provides a method of forming a field implant channel stop region and a device using a field implant channel stop region to improve isolation between devices in integrated circuits using field effect transistors. The field implant channel stop region is formed without the use of an extra mask or extra masking steps by means of either a large angle tilted ion implant beam or a higher energy normally directed ion implant beam. The field implant channel stop region is formed with the mask used to form the light doped drain region in place. The field implant channel stop region forms a local increase in the doping level in the device well thereby forming the channel stop region.
    • 本发明提供一种形成场注入通道停止区域的方法和使用场注入通道停止区域的装置,以改善使用场效应晶体管的集成电路中的器件之间的隔离。 通过大角度倾斜离子注入光束或较高能量的正向定向离子注入光束,形成场注入通道停止区域,而不需要使用额外的掩模或额外的掩模步骤。 场用注入沟道阻挡区域形成有用于在适当位置形成光掺杂漏极区域的掩模。 场注入沟道停止区域在器件阱中形成掺杂水平的局部增加,从而形成沟道停止区域。
    • 16. 发明授权
    • “无鸟”现场隔离方法
    • US5393693A
    • 1995-02-28
    • US254533
    • 1994-06-06
    • Joe KoChih-Hung Lin
    • Joe KoChih-Hung Lin
    • H01L21/762H01L21/76
    • H01L21/7621H01L21/76213
    • A method of forming field oxide isolation regions for submicron technology using oxygen implantation is described. A first insulating layer is formed over a silicon substrate. A second insulating layer is formed over the first insulating layer. A first opening is formed in the first and second insulating layers. Sidewall spacers are formed on the vertical surfaces of the first and second insulating layers, within the first opening, to define a second, smaller opening. A portion of the silicon substrate is removed in the region defined by the second, smaller opening, to form an etched region of the silicon substrate. The sidewall spacers are removed. Oxygen is implanted into the etched region of the silicon substrate and into the region of the silicon substrate under the former location of the sidewall spacers. A portion of the polycrystalline silicon in and above the etched region of the silicon substrate. The field oxide isolation region is formed by heating. The remainder of the first and second insulating layers are removed.
    • 描述了使用氧气注入形成亚微米技术的场氧化物隔离区域的方法。 在硅衬底上形成第一绝缘层。 在第一绝缘层上形成第二绝缘层。 在第一和第二绝缘层中形成第一开口。 在第一开口内的第一和第二绝缘层的垂直表面上形成侧壁间隔物,以限定第二较小的开口。 在由第二较小开口限定的区域中去除硅衬底的一部分,以形成硅衬底的蚀刻区域。 去除侧壁间隔物。 将氧气注入到硅衬底的蚀刻区域中并进入硅衬底的位于侧壁间隔物的前面位置的区域中。 在硅衬底的蚀刻区域内和上方的多晶硅的一部分。 通过加热形成场氧化物隔离区域。 去除第一和第二绝缘层的其余部分。
    • 18. 发明授权
    • Method for fabricating flash memory
    • 制造闪存的方法
    • US06194271B1
    • 2001-02-27
    • US09237295
    • 1999-01-25
    • Chih-Hung LinJoe Ko
    • Chih-Hung LinJoe Ko
    • H01L218247
    • H01L27/11521
    • A method of fabricating a flash memory. A gate is formed on a provided substrate. A first doping process is performed. A patterned mask layer is formed over the substrate. A shallow trench isolation structure is formed in the substrate by using the gate and the mask layer as a mask. A portion of the substrate defined below the gate is a first active region and a portion of the substrate defined below the mask layer is a second active region. The mask layer is removed. A dielectric layer and a conductive layer are formed in sequence over the substrate. The conductive layer, the dielectric layer and the gate are patterned to form a control gate and a floating gate, wherein a portion of the control gate overlap with the second active region. A second doping process is performed.
    • 一种制造闪速存储器的方法。 栅极形成在所提供的衬底上。 执行第一掺杂过程。 在衬底上形成图案化掩模层。 通过使用栅极和掩模层作为掩模在衬底中形成浅沟槽隔离结构。 位于栅极下方的衬底的一部分是第一有源区,并且限定在掩模层下面的衬底的一部分是第二有源区。 去除掩模层。 在衬底上依次形成电介质层和导电层。 将导电层,电介质层和栅极图案化以形成控制栅极和浮置栅极,其中控制栅极的一部分与第二有源区域重叠。 执行第二掺杂过程。
    • 19. 发明授权
    • Grounding method for eliminating process antenna effect
    • 消除工艺天线效应的接地方法
    • US5817577A
    • 1998-10-06
    • US746068
    • 1996-11-05
    • Joe Ko
    • Joe Ko
    • H01L27/02H01L21/443
    • H01L27/0251H01L24/06H01L2224/02166H01L2924/14
    • A method for eliminating the antenna effect in the manufacture of an integrated circuit in a silicon substrate, wherein there are contact pad areas at the periphery of the integrated circuit and interconnection lines connecting the contact pad areas with the integrated circuit. This is achieved by grounding the contact pad areas to the silicon substrate; processing in a plasma environment that would normally produce electrical charge build-up at the gate oxide of the integrated circuit, but wherein the grounded contact pad areas eliminates the charge build-up; and disabling the grounding of the contact pad areas to retrieve the functioning of the integrated circuit.
    • 一种用于消除在硅衬底中制造集成电路中的天线效应的方法,其中在集成电路的周围存在接触焊盘区域和将接触焊盘区域与集成电路连接的互连线。 这通过将接触焊盘区域接地到硅衬底来实现; 在等离子体环境中的处理,其通常会在集成电路的栅极氧化物处产生电荷积累,但是其中接地接触焊盘区域消除了电荷积聚; 并禁用接触焊盘区域的接地以检索集成电路的功能。
    • 20. 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。