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    • 111. 发明授权
    • Vertical MOSFET SRAM cell
    • 垂直MOSFET SRAM单元
    • US07138685B2
    • 2006-11-21
    • US10318495
    • 2002-12-11
    • Louis L. HsuOleg GluschenkovJack A. MandelmanCarl J. Radens
    • Louis L. HsuOleg GluschenkovJack A. MandelmanCarl J. Radens
    • H01L21/00
    • H01L27/11G11C11/412H01L21/84H01L27/1104H01L27/1203
    • A method of forming an SRAM cell device includes the following steps. Form pass gate FET transistors and form a pair of vertical pull-down FET transistors with a first common body and a first common source in a silicon layer patterned into parallel islands formed on a planar insulator. Etch down through upper diffusions between cross-coupled inverter FET transistors to form pull-down isolation spaces bisecting the upper strata of pull-up and pull-down drain regions of the pair of vertical pull-down FET transistors, with the isolation spaces reaching down to the common body strata. Form a pair of vertical pull-up FET transistors with a second common body and a second common drain. Then, connect the FET transistors to form an SRAM cell.
    • 形成SRAM单元装置的方法包括以下步骤。 形成栅极FET晶体管并形成一对垂直下拉FET晶体管,其具有第一共同体和第一公共源,图案化为平坦绝缘体上形成平行岛的硅层。 通过交叉耦合的反相器FET晶体管之间的上扩散来蚀刻,以形成将一对垂直下拉FET晶体管的上拉和下拉漏极区的上层平分的下拉隔离空间,隔离空间达到 到共同的身体层。 形成一对具有第二共同体和第二公共漏极的垂直上拉FET晶体管。 然后,连接FET晶体管以形成SRAM单元。
    • 112. 发明授权
    • Gate electrode forming methods using conductive hard mask
    • 使用导电硬掩模的栅电极形成方法
    • US07084024B2
    • 2006-08-01
    • US10711642
    • 2004-09-29
    • Oleg GluschenkovDae-Gyu Park
    • Oleg GluschenkovDae-Gyu Park
    • H01L21/8238
    • H01L21/28079H01L21/32139H01L21/823842H01L29/4958H01L29/517H01L29/518
    • Methods related to formation of a gate electrode are disclosed that employ a conductive hard mask as a protective layer during a photoresist removal process. In preferred embodiments, the conductive hard mask includes a metal containing conductor or a metal silicide. The invention prevents process damage on the gate dielectric during wet and/or dry resist strip, and since the conductive hard mask cannot be etched in typical resist strip chemistries, the invention also protects a metal electrode under the hard mask. The steps disclosed allow creation of a multiple work function metal gate electrode, or a mixed metal and polysilicon gate electrode, which do not suffer from the problems of the related art.
    • 公开了在光致抗蚀剂去除过程中使用导电硬掩模作为保护层的与栅电极的形成有关的方法。 在优选实施例中,导电硬掩模包括含金属的导体或金属硅化物。 本发明防止了在湿式和/或干式抗蚀剂条带期间对栅极电介质的工艺损伤,并且由于导电硬掩模不能在典型的抗蚀剂条纹化学中被蚀刻,本发明还保护硬掩模下面的金属电极。 所公开的步骤允许创建不具有现有技术问题的多功能金属栅电极或混合金属和多晶硅栅电极。
    • 115. 发明授权
    • Temperature stable metal nitride gate electrode
    • 温度稳定的金属氮化物栅电极
    • US07023064B2
    • 2006-04-04
    • US10710063
    • 2004-06-16
    • Dae-Gyu ParkCyril Cabral, Jr.Oleg GluschenkovHyungjun Kim
    • Dae-Gyu ParkCyril Cabral, Jr.Oleg GluschenkovHyungjun Kim
    • H01L29/76
    • H01L21/823842H01L21/823857Y10S257/90Y10S438/942
    • An integrated circuit is provided including an FET gate structure formed on a substrate. This structure includes a gate dielectric on the substrate, and a metal nitride layer overlying the gate dielectric and in contact therewith. This metal nitride layer is characterized as MNx, where M is one of W, Re, Zr, and Hf, and x is in the range of about 0.7 to about 1.5. Preferably the layer is of WNx, and x is about 0.9. Varying the nitrogen concentration in the nitride layer permits integration of different FET characteristics on the same chip. In particular, varying x in the WNx layer permits adjustment of the threshold voltage in the different FETs. The polysilicon depletion effect is substantially reduced, and the gate structure can be made thermally stable up to about 1000° C.
    • 提供了一种集成电路,其包括形成在衬底上的FET栅极结构。 该结构包括衬底上的栅极电介质和覆盖栅极电介质并与其接触的金属氮化物层。 该金属氮化物层的特征在于MN x,其中M是W,Re,Zr和Hf之一,x在约0.7至约1.5的范围内。 优选地,该层为W N x X,x为约0.9。 改变氮化物层中的氮浓度允许在同一芯片上集成不同的FET特性。 特别地,在WN 层中改变x允许调节不同FET中的阈值电压。 多晶硅耗尽效应显着降低,并且栅极结构可以在高达约1000℃下热稳定。