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    • 111. 发明授权
    • High performance asymmetrical MOSFET structure and method of making the
same
    • 高性能非对称MOSFET结构及其制作方法
    • US5841168A
    • 1998-11-24
    • US934509
    • 1997-09-19
    • Mark I. GardnerFred HauseDaniel Kadosh
    • Mark I. GardnerFred HauseDaniel Kadosh
    • H01L21/336H01L29/78H01L29/76H01L29/94H01L31/062H01L31/113
    • H01L29/66659H01L29/7835H01L29/6656Y10S257/90
    • A method of fabricating a high performance asymmetrical field effect transistor (FET)includes the steps of forming a gate oxide and a gate electrode on a layer of semiconductor material of a first conductivity type. The gate electrode includes a first side edge adjacent a first region of the semiconductor material and a second side edge proximate a second region of the semiconductor material. First and second lightly doped regions are formed in regions of the semiconductor material not covered by the gate oxide, and extending away from the first and second side edges of the gate electrode, respectively. First and second sidewall spacers are formed proximate the first and second side edges of the gate electrode, respectively, each sidewall spacer including a composite sidewall spacer of a first and a second spacer material. Lastly, a very highly doped source region and a highly doped drain region are formed in the first and second regions, respectively, the very highly doped source region having a greater dopant concentration of the second conductivity type than the highly doped drain region and the highly doped drain region having a dopant concentration greater than the lightly doped region extending away from the second side edge of said gate electrode. A novel FET is disclosed also.
    • 制造高性能不对称场效应晶体管(FET)的方法包括在第一导电类型的半导体材料层上形成栅极氧化物和栅电极的步骤。 栅电极包括与半导体材料的第一区域相邻的第一侧边缘和靠近半导体材料的第二区域的第二侧边缘。 第一和第二轻掺杂区域形成在半导体材料未被栅极氧化物覆盖的区域中,并且分别从栅电极的第一和第二侧边缘延伸。 第一和第二侧壁间隔物分别形成在栅电极的第一和第二侧边缘附近,每个侧壁间隔物包括第一和第二间隔物材料的复合侧壁间隔物。 最后,分别在第一和第二区域中形成非常高掺杂的源极区和高掺杂的漏极区,非常高掺杂的源极区具有比高掺杂漏极区高的掺杂浓度的第二导电类型, 掺杂浓度的漏极区域的掺杂浓度大于远离所述栅电极的第二侧边缘延伸的轻掺杂区域。 还公开了一种新颖的FET。
    • 113. 发明授权
    • Localized semiconductor substrate for multilevel transistors
    • 用于多层晶体管的局部半导体衬底
    • US5808319A
    • 1998-09-15
    • US728601
    • 1996-10-10
    • Mark I. GardnerDaniel Kadosh
    • Mark I. GardnerDaniel Kadosh
    • H01L21/822H01L27/06H01L29/76H01L31/20H01L31/076
    • H01L27/0688H01L21/8221
    • A dual level transistor integrated circuit and a fabrication technique for making the integrated circuit. The dual level transistor is an integrated circuit in which a first transistor is formed on an upper surface of a global dielectric and a second transistor is formed on an upper surface of a first local substrate such that the second transistor is vertically displaced from the first transistor. The first local substrate is formed upon a first inter-substrate dielectric. By vertically displacing the first and second transistors, the lateral separation required to isolate first and second transistors in a typical single plane process is eliminated. The integrated circuit includes a semiconductor global substrate. The integrated circuit further includes a first transistor. The first transistor includes a first gate dielectric formed on an upper surface of the global substrate and a first conductive gate structure formed on an upper surface of the first dielectric. The integrated circuit further includes a first inter-substrate dielectric that is formed on the first conductive gate structure and the global substrate. A first local substrate is formed on an upper surface of the first inter-substrate dielectric. A second transistor is located within the first local substrate. The second transistor includes a second gate dielectric formed on an upper surface of the first local substrate and a second conductive gate structure formed on an upper surface of the second gate dielectric.
    • 一种双级晶体管集成电路和用于制造集成电路的制造技术。 双电平晶体管是集成电路,其中第一晶体管形成在全局电介质的上表面上,并且第二晶体管形成在第一局部衬底的上表面上,使得第二晶体管垂直从第一晶体管 。 第一局部衬底形成在第一衬底间电介质上。 通过垂直移位第一和第二晶体管,消除了在典型的单平面工艺中隔离第一和第二晶体管所需的横向分离。 集成电路包括半导体全局基板。 集成电路还包括第一晶体管。 第一晶体管包括形成在全局衬底的上表面上的第一栅极电介质和形成在第一电介质的上表面上的第一导电栅极结构。 集成电路还包括形成在第一导电栅极结构和全局基板上的第一基板间电介质。 第一局部衬底形成在第一衬底间电介质的上表面上。 第二晶体管位于第一局部衬底内。 第二晶体管包括形成在第一局部衬底的上表面上的第二栅极电介质和形成在第二栅极电介质的上表面上的第二导电栅极结构。
    • 115. 发明授权
    • Method of making an ultra high density NAND gate using a stacked
transistor arrangement
    • 使用堆叠晶体管布置制造超高密度NAND门的方法
    • US5714394A
    • 1998-02-03
    • US745029
    • 1996-11-07
    • Daniel KadoshMark I. Gardner
    • Daniel KadoshMark I. Gardner
    • H01L21/822H01L27/06H01L21/265H01L21/70H01L27/00
    • H01L21/8221H01L27/0688
    • A process is provided for producing active and passive devices on various levels of a semiconductor topography. As such, the present process can achieve device formation in three dimensions to enhance the overall density at which an integrated circuit is formed. The multi-level fabrication process not only adds to the overall circuit density, but does so with emphasis placed on high performance interconnection between devices on separate levels. The interconnect configuration is made as short as possible between features within one transistor level to features within another transistor level. This interconnect scheme lowers resistivity by forming a gate conductor of an upper level transistor upon a gate conductor of a lower level transistor. Alternatively, the gate conductors can be a single conductive entity. In order to abut the gate conductors together, or form a single gate conductor, the upper level transistor is inverted relative to the lower level transistor. In addition to the inverted, shared gate conductor, the multi-level transistor fabrication process incorporates formation of openings and filling of those openings to produce interconnect to junctions of the upper/lower transistors. Interconnecting the gate conductors of a pair of stacked transistors and connecting specific junctions of those transistors allows development of a high density NAND gate. The NAND gate includes two pairs of stacked transistors, wherein one transistor of a pair can be connected to the other transistor of that pair or connected to one or both transistors of the other pair.
    • 提供了一种用于在半导体形貌的各种水平上产生有源和无源器件的工艺。 因此,本方法可以实现三维装置的形成,以增强形成集成电路的总体密度。 多级制造过程不仅增加了整体电路密度,而且重点放在了在不同级别上的器件之间的高性能互连。 互连配置在一个晶体管电平内的特征之间尽可能短,在另一个晶体管级内的特征。 该互连方案通过在较低级晶体管的栅极导体上形成上级晶体管的栅极导体来降低电阻率。 或者,栅极导体可以是单个导电实体。 为了将栅导体邻接在一起或形成单个栅极导体,上层晶体管相对于下层晶体管反相。 除了反向共享栅极导体之外,多级晶体管制造工艺包括形成开口和填充这些开口以产生与上/下晶体管的结的互连。 互连一对堆叠晶体管的栅极导体和连接这些晶体管的特定接头允许开发高密度NAND门。 NAND门包括两对堆叠晶体管,其中一对晶体管可以连接到该对的另一个晶体管或连接到另一对的一个或两个晶体管。
    • 116. 发明授权
    • Method for fabrication of a non-symmetrical transistor
    • 制造非对称晶体管的方法
    • US5656518A
    • 1997-08-12
    • US713386
    • 1996-09-13
    • Mark I. GardnerDaniel KadoshDerick J. Wristers
    • Mark I. GardnerDaniel KadoshDerick J. Wristers
    • H01L21/336H01L29/78H01L21/8234
    • H01L29/66659H01L29/7835
    • In the present invention, a method for fabrication of a non-symmetrical LDD-IGFET is described. The present invention includes a gate insulator and a gate electrode, such as a polysilicon, formed over a semiconductor substrate, the gate electrode having a top surface and opposing first and second sidewalls. A first dopant is implanted to provide a lightly doped drain region substantially aligned with the second sidewall. An oxide layer provides first and second sidewall oxide regions adjacent the first and second sidewalls, respectively. The first sidewall oxide region is isolated using a nitride layer having a window which exposes the second sidewall oxide region. Thermal oxidation is applied to the second sidewall oxide region wherein the size of the second sidewall oxide region increases while the size of the first sidewall oxide region remains substantially constant. The first sidewall oxide region is then exposed by removing the nitride layer and a second dopant is implanted to provide a heavily doped drain region substantially aligned with the outside edge of the second sidewall oxide region and a heavily doped source region.
    • 在本发明中,描述了用于制造非对称LDD-IGFET的方法。 本发明包括形成在半导体衬底上的栅极绝缘体和诸如多晶硅的栅电极,栅电极具有顶表面和相对的第一和第二侧壁。 植入第一掺杂剂以提供基本上与第二侧壁对准的轻掺杂漏极区。 氧化物层分别提供与第一和第二侧壁相邻的第一和第二侧壁氧化物区域。 使用具有暴露第二侧壁氧化物区域的窗口的氮化物层来隔离第一侧壁氧化物区域。 热氧化被施加到第二侧壁氧化物区域,其中第二侧壁氧化物区域的尺寸增加,而第一侧壁氧化物区域的尺寸保持基本恒定。 然后通过去除氮化物层来暴露第一侧壁氧化物区域,并且注入第二掺杂剂以提供与第二侧壁氧化物区域的外边缘基本对准的重掺杂漏极区域和重掺杂源极区域。
    • 117. 发明授权
    • Elevated transistor fabrication technique
    • 高架晶体管制造技术
    • US06420730B1
    • 2002-07-16
    • US09591871
    • 2000-06-12
    • Mark I. GardnerDaniel KadoshMichael Duane
    • Mark I. GardnerDaniel KadoshMichael Duane
    • H01L2976
    • H01L27/0688H01L21/8221
    • A second transistor is formed a spaced distance above a first transistor. An interlevel dielectric is first deposited upon the upper surface of the first semiconductor substrate and the first transistor. A second semiconductor substrate, preferably comprising polysilicon, is then formed into the interlevel dielectric. A second transistor is then formed on the upper surface of the second semiconductor substrate. The second transistor is a spaced distance above the first transistor. The two transistors are a lateral distance apart which is smaller than the distance that can be achieved by conventional fabrication of transistors on the upper surface of the wafer. Transistors are more closely packed which results in an increase in the number of devices produced per wafer.
    • 在第一晶体管之上形成间隔距离的第二晶体管。 首先在第一半导体衬底和第一晶体管的上表面上沉积层间电介质。 然后,优选地包括多晶硅的第二半导体衬底形成层间电介质。 然后在第二半导体衬底的上表面上形成第二晶体管。 第二晶体管是在第一晶体管之上的间隔距离。 两个晶体管是横向距离,其小于通过晶片的上表面上的晶体管的常规制造可以实现的距离。 晶体管更紧密地封装,这导致每个晶片产生的器件数量的增加。
    • 119. 发明授权
    • High density integrated circuit
    • US06365943B1
    • 2002-04-02
    • US09157644
    • 1998-09-21
    • Mark I. GardnerDaniel KadoshFred N. Hause
    • Mark I. GardnerDaniel KadoshFred N. Hause
    • H01L2976
    • H01L21/823437Y10S438/947
    • A semiconductor transistor which includes a silicon base layer, a gate dielectric formed on the silicon base layer, first and second silicon source/drain structures, first and second spacer structures, and a silicon gate structure is provided. A method for forming the semiconductor transistor may include a semiconductor process in which a dielectric layer is formed on an upper surface of a semiconductor substrate which includes a silicon base layer. Thereafter, an upper silicon layer is formed on an upper surface of the dielectric layer. The dielectric layer and the upper silicon layer are then patterned to form first and second silicon-dielectric stacks on the upper surface of the base silicon layer. The first and second silicon-dielectric stacks are laterally displaced on either side of a channel region of the silicon substrate and each include a proximal sidewall and a distal sidewall. The proximal sidewalls are approximately coincident with respective boundaries of the channel region. Thereafter, proximal and distal spacer structures are formed on the proximal and distal sidewalls respectively of the first and second silicon-dielectric stacks. A gate dielectric layer is then formed on exposed portions of the silicon base layer over a channel region of the base silicon layer. Portions of the first and second silicon-dielectric stacks located over respective source/drain regions of the base silicon layer are then selectively removed. Silicon is then deposited to fill first and second voids created by the selected removal of the stacks. The silicon deposition also fills a silicon gate region above the gate dielectric over the channel region. Thereafter, an impurity distribution is introduced into the deposited silicon. The deposited silicon is then planarized to physically isolate the silicon within the gate region from the silicon within the first and second voids resulting in the formation of a transistor including a silicon gate structure and first and second source/drain structures.