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    • 1. 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。
    • 2. 发明授权
    • Structure and method for MOSFET with metallic gate electrode
    • 具有金属栅电极的MOSFET的结构和方法
    • US06720630B2
    • 2004-04-13
    • US09867874
    • 2001-05-30
    • Jack A. MandelmanOleg GluschenkovCarl J. Radens
    • Jack A. MandelmanOleg GluschenkovCarl J. Radens
    • H01L2976
    • H01L21/28247H01L29/4933H01L29/6653H01L29/66545H01L29/6659Y10S257/90
    • A method of forming a metal oxide semiconductor field effect transistor (MOSFET) having a metallic gate electrode that is protected with hanging sidewall spacers during a subsequent gate oxidation process is provided. A semiconductor structure formed by the inventive method is also provided. Specifically, the inventive semiconductor structure includes a semiconductor substrate comprising a patterned gate region formed atop a patterned gate dielectric, the patterned gate region includes at least a metallic gate electrode formed atop a polysilicon gate electrode; hanging sidewall spacers formed on an upper portion of the patterned gate region including the metallic gate electrode; and a thermal oxide layer formed on lower portions of patterned gate region including a portion of the polysilicon gate electrode, but not the metallic gate electrode.
    • 提供一种形成金属氧化物半导体场效应晶体管(MOSFET)的方法,该金属氧化物半导体场效应晶体管(MOSFET)具有金属栅电极,其在随后的栅极氧化处理期间被悬挂的侧壁间隔物保护。 还提供了通过本发明方法形成的半导体结构。 具体地,本发明的半导体结构包括半导体衬底,其包括形成在图案化栅极电介质上的图案化栅极区域,所述图案化栅极区域至少包括形成在多晶硅栅电极顶部的金属栅电极; 形成在包括金属栅极的图案化栅极区域的上部上的悬挂侧壁间隔物; 以及形成在图案化栅极区域的下部上的热氧化物层,其包括多晶硅栅电极的一部分而不是金属栅电极。
    • 6. 发明授权
    • Damascene method for improved MOS transistor
    • 改进MOS晶体管的镶嵌方法
    • US06806534B2
    • 2004-10-19
    • US10342423
    • 2003-01-14
    • Omer H. DokumaciBruce B. DorisOleg GluschenkovJack A. MandelmanCarl J. Radens
    • Omer H. DokumaciBruce B. DorisOleg GluschenkovJack A. MandelmanCarl J. Radens
    • H01L2976
    • H01L29/66583H01L21/26586H01L21/28114H01L29/665H01L29/66553
    • A MOSFET fabrication methodology and device structure, exhibiting improved gate activation characteristics. The gate doping that may be introduced while the source drain regions are protected by a damascene mandrel to allow for a very high doping in the gate conductors, without excessively forming deep source/drain diffusions. The high gate conductor doping minimizes the effects of electrical depletion of carriers in the gate conductor. The MOSFET fabrication methodology and device structure further results in a device having a lower gate conductor width less than the minimum lithographic minimum image, and a wider upper gate conductor portion width which may be greater than the minimum lithographic image. Since the effective channel length of the MOSFET is defined by the length of the lower gate portion, and the line resistance is determined by the width of the upper gate portion, both short channel performance and low gate resistance are satisfied simultaneously.
    • MOSFET制造方法和器件结构,表现出改进的栅极激活特性。 当源极漏极区域被镶嵌心轴保护以允许栅极导体中的非常高的掺杂而不会过度地形成深的源极/漏极扩散时,可以引入栅极掺杂。 高栅极导体掺杂最大限度地减小了栅极导体中载流子的电耗损的影响。 MOSFET制造方法和器件结构进一步导致具有小于最小光刻最小图像的较低栅极导体宽度的器件,以及可能大于最小光刻图像的较宽上部栅极导体部分宽度。 由于MOSFET的有效沟道长度由下栅极部分的长度限定,并且线路电阻由上部栅极部分的宽度决定,所以同时满足短沟道性能和低栅极电阻。
    • 7. 发明授权
    • Method for fabricating semiconductor devices with different properties using maskless process
    • 使用无掩模工艺制造具有不同特性的半导体器件的方法
    • US06355531B1
    • 2002-03-12
    • US09634225
    • 2000-08-09
    • Jack A. MandelmanLouis L. HsuCarl J. RadensWilliam R. TontiLi-Kong Wang
    • Jack A. MandelmanLouis L. HsuCarl J. RadensWilliam R. TontiLi-Kong Wang
    • H01L218236
    • H01L21/823892H01L21/823807H01L21/82385Y10S438/981
    • A method is provided for fabricating semiconductor devices having different properties on a common semiconductor substrate. The method includes the steps of (a) forming N openings on the semiconductor substrate, wherein each opening is corresponding to a channel region of each semiconductor device, (b) forming oxide layers of an ith type on surfaces of the N openings, (c) depositing gate conductor material of an ith type over structure of the semiconductor devices, the gate conductor material of the ith type having a gate conductor work-function of an ith type, (d) removing the gate conductor material of the ith type such that a predetermined amount of the gate conductor material of the ith type remains in an ith opening to form a gate conductor material layer of the ith type on top surface in the ith opening and the gate conductor material of the ith type deposited in the structure other than the ith opening is removed, (e) removing the oxide layers of the ith type from openings other than the ith opening, (f) repeating the steps of (a) through (e) from “i=1” to “i=N”, and (g) forming at least one layer on surface of each of N gate conductor material layers in the N openings to form a gate conductor, whereby the N semiconductor devices have N gate conductors, respectively, wherein the N gate conductors have N types of gate conductor work-functions. The semiconductor devices also have channel regions of which doping levels are different from each other by implanting the channel regions with different types of implants.
    • 提供了一种在公共半导体衬底上制造具有不同特性的半导体器件的方法。 该方法包括以下步骤:(a)在半导体衬底上形成N个开口,其中每个开口对应于每个半导体器件的沟道区,(b)在N个开口的表面上形成第i个类型的氧化物层,(c )沉积所述半导体器件的第i型结构的栅极导体材料,所述第i型栅极导体材料具有第i类型的栅极导体功函数,(d)去除所述第i种类型的栅极导体材料,使得 第i个类型的栅极导体材料的预定量保持在第i个开口中,以在第i个开口的顶表面上形成第i型的栅极导体材料层,并且沉积在除第 除去第i个开口,(e)从第i个开口以外的开口除去第i个类型的氧化物层,(f)重复步骤(a)至(e)从“i = 1”到“i = N “,(g)在其上形成至少一层 在N个开口中的N个栅极导体材料层中的每一个的表面形成栅极导体,由此N个半导体器件分别具有N个栅极导体,其中N个栅极导体具有N种类型的栅极导体功函数。 半导体器件还具有通过用不同类型的植入物植入沟道区域而使掺杂水平彼此不同的沟道区域。