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    • 2. 发明授权
    • Method of integrating Ldd implantation for CMOS device fabrication
    • 整合Ldd植入用于CMOS器件制造的方法
    • US06043533A
    • 2000-03-28
    • US944377
    • 1997-10-06
    • Mark I. GardnerFred HauseRobert Paiz
    • Mark I. GardnerFred HauseRobert Paiz
    • H01L21/8238H01L29/76H01L29/94H01L31/062H01L31/113
    • H01L21/823814H01L21/823807
    • A method of integrating lightly doped drain implantation for complementary metal oxide semiconductor (CMOS) device fabrication includes providing a semiconductor substrate having a p-well region and an n-well region. A patterned gate oxide and gate electrode are formed on each of the p-well region and the n-well region. One of either the p-well region or the n-well region is masked with a patterned photoresist having a prescribed thickness, leaving a non-masked region exposed. Ions are then implanted to form desired p-type lightly doped drain (Pldd) regions in the n-well region, including Pldd regions adjacent to edges of the gate electrode in the n-well region. Lastly, ions are implanted to form desired n-type lightly doped drain (Nldd) regions in the p-well region, including Nldd regions adjacent to edges of the gate electrode in the p-well region, the Pldd and Nldd regions thus being formed with the use of only a single ion implantation masking step. A semiconductor substrate and an integrated circuit are also disclosed.
    • 用于互补金属氧化物半导体(CMOS)器件制造的轻掺杂漏极注入的集成方法包括提供具有p阱区域和n-阱区域的半导体衬底。 在p阱区域和n阱区域中的每一个上形成图案化栅极氧化物和栅极电极。 使用具有规定厚度的图案化光致抗蚀剂掩蔽p阱区域或n阱区域中的一个,留下未被掩蔽的区域。 然后植入离子以在n阱区域中形成期望的p型轻掺杂漏极(Pldd)区域,包括与n阱区域中的栅电极的边缘相邻的Pldd区域。 最后,注入离子以在p阱区域中形成期望的n型轻掺杂漏极(Nldd)区域,包括与p阱区域中的栅电极的边缘相邻的Nldd区域,从而形成Pldd和Nldd区域 仅使用单个离子注入掩模步骤。 还公开了半导体衬底和集成电路。
    • 4. 发明授权
    • Metal attachment method and structure for attaching substrates at low
temperatures
    • 用于在低温下安装基板的金属附着方法和结构
    • US6080640A
    • 2000-06-27
    • US45324
    • 1998-03-20
    • Mark I. GardnerFred HauseDaniel Kadosh
    • Mark I. GardnerFred HauseDaniel Kadosh
    • H01L21/768H01L21/98H01L23/532H01L25/065H01L21/30H01L21/46
    • H01L25/50H01L21/76801H01L21/76834H01L23/5329H01L24/80H01L25/0657H01L2224/05571H01L2224/80357H01L2224/80895H01L2224/80896H01L2225/06513H01L2225/06541H01L2924/1306H01L2924/13091H01L2924/14H01L2924/3011
    • A high density integrated circuit structure and method of making the same includes providing a first silicon substrate structure having semiconductor device formations in accordance with a first circuit implementation and metal interlevel lines disposed on a top surface thereof and a second silicon substrate structure having a second circuit implementation and metal interlevel lines disposed on a top surface thereof. The first substrate structure includes a planarized low-K dielectric disposed between the metal interlevel lines and a protective coating separating the metal interlevel lines from is the low-K dielectric, the metal interlevel lines of the first silicon substrate structure have a melting temperature on the order of less than 500.degree. C. and the low-K dielectric having a dielectric K-value in the range of 2.0-3.8. The second substrate structure also includes a planarized low-K dielectric disposed between the metal interlevel lines and a protective coating separating the metal interlevel lines from the low-K dielectric, the metal interlevel lines having a melting temperature on the order of less than 500.degree. C. and the low-K dielectric having a dielectric K-value in the range of 2.0-3.8. Lastly, the first substrate structure is low temperature bonded to the second substrate structure at respective metal interlevel lines of the first and second substrate structures.
    • 高密度集成电路结构及其制造方法包括提供具有根据第一电路实现的半导体器件结构的第一硅衬底结构和设置在其顶表面上的金属层间线以及具有第二电路的第二硅衬底结构 实施和设置在其顶表面上的金属层间线。 第一衬底结构包括布置在金属层间线之间的平坦化低K电介质和将金属层间线与低K电介质隔开的保护涂层,第一硅衬底结构的金属层间线具有在 介电K值在2.0-3.8范围内的低K电介质。 第二基板结构还包括布置在金属层间线之间的平坦化的低K电介质和将金属层间线与低K电介质隔开的保护涂层,金属层间线具有小于500°的熔融温度 并且介电K值在2.0-3.8范围内的低K电介质。 最后,第一衬底结构在第一和第二衬底结构的相应的金属层间线处被低温地结合到第二衬底结构。
    • 5. 发明授权
    • High performance MOSFET structure having asymmetrical spacer formation
and having source and drain regions with different doping concentration
    • 具有不对称间隔物形成并且具有不同掺杂浓度的源极和漏极区的高性能MOSFET结构
    • US5952702A
    • 1999-09-14
    • US944372
    • 1997-10-06
    • Mark I. GardnerFred Hause
    • Mark I. GardnerFred Hause
    • H01L21/336H01L29/78H01L29/10
    • H01L29/66659H01L29/6656H01L29/7835
    • A method of fabricating a field effect transistor (FET) having an asymmetrical spacer formation includes the steps of forming a gate oxide and a gate electrode on a semiconductor material of a first conductivity type. The gate electrode includes a first and second side edges proximate first and second regions, respectively, of the semiconductor material. Ions of a second conductivity type are implanted to form lightly doped regions extending at least between the first side edge and the first region and at least between the second side edge and the second region, respectively. Blanket layers of oxide and nitride are then formed on the gate electrode and the semiconductor material. The nitride layer is patterned and a first sidewall spacer is formed in a remaining portion of the nitride layer proximate the second side edge. A second blanket layer of oxide is then formed on the first oxide layer and first sidewall spacer. Lastly, second sidewall spacers are formed in the second oxide layer, wherein a first one of the second sidewall spacers includes oxide of a first lateral dimension proximate the first side edge and wherein a second one of the second sidewall spacers is juxtaposed with the first sidewall spacer to form a composite sidewall spacer of a second lateral dimension greater than the first lateral dimension. A novel FET is disclosed also.
    • 制造具有不对称间隔物形成的场效应晶体管(FET)的方法包括以下步骤:在第一导电类型的半导体材料上形成栅极氧化物和栅电极。 栅极电极包括分别靠近半导体材料的第一和第二区域的第一和第二侧边缘。 植入第二导电类型的离子以形成至少在第一侧边缘和第一区域之间以及至少在第二侧边缘和第二区域之间延伸的轻掺杂区域。 然后在栅电极和半导体材料上形成氧化物层和氮化物层。 图案化氮化物层,并且第一侧壁间隔物形成在靠近第二侧边缘的氮化物层的剩余部分中。 然后在第一氧化物层和第一侧壁间隔物上形成第二覆盖层氧化物。 最后,第二侧壁间隔物形成在第二氧化物层中,其中第二侧壁间隔物中的第一侧壁间隔物包括靠近第一侧边缘的第一侧向尺寸的氧化物,并且其中第二侧壁间隔物中的第二侧壁间隔物与第一侧壁并置 间隔件以形成大于第一横向尺寸的第二横向尺寸的复合侧壁间隔件。 还公开了一种新颖的FET。
    • 6. 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。
    • 8. 发明授权
    • Metal attachment method and structure for attaching substrates at low
temperatures
    • 用于在低温下安装基板的金属附着方法和结构
    • US6097096A
    • 2000-08-01
    • US890377
    • 1997-07-11
    • Mark I. GardnerFred HauseDaniel Kadosh
    • Mark I. GardnerFred HauseDaniel Kadosh
    • H01L21/768H01L21/98H01L23/532H01L25/065H01L23/48H01L23/52H01L29/40
    • H01L25/50H01L21/76801H01L21/76834H01L23/5329H01L24/80H01L25/0657H01L2224/05571H01L2224/80357H01L2224/80895H01L2224/80896H01L2225/06513H01L2225/06541H01L2924/1306H01L2924/13091H01L2924/14H01L2924/3011
    • A high density integrated circuit structure and method of making the same includes providing a first silicon substrate structure having semiconductor device formations in accordance with a first circuit implementation and metal interlevel lines disposed on a top surface thereof and a second silicon substrate structure having a second circuit implementation and metal interlevel lines disposed on a top surface thereof. The first substrate structure includes a planarized low-K dielectric disposed between the metal interlevel lines and a protective coating separating the metal interlevel lines from the low-K dielectric, the metal interlevel lines of the first silicon substrate structure have a melting temperature on the order of less than 500.degree. C. and the low-K dielectric having a dielectric K-value in the range of 2.0-3.8. The second substrate structure also includes a planarized low-K dielectric disposed between the metal interlevel lines and a protective coating separating the metal interlevel lines from the low-K dielectric, the metal interlevel lines having a melting temperature on the order of less than 500.degree. C. and the low-K dielectric having a dielectric K-value in the range of 2.0-3.8. Lastly, the first substrate structure is low temperature bonded to the second substrate structure at respective metal interlevel lines of the first and second substrate structures.
    • 高密度集成电路结构及其制造方法包括提供具有根据第一电路实现的半导体器件结构的第一硅衬底结构和设置在其顶表面上的金属层间线以及具有第二电路的第二硅衬底结构 实施和设置在其顶表面上的金属层间线。 第一衬底结构包括设置在金属层间线之间的平面化低K电介质和将金属层间线与低K电介质分开的保护涂层,第一硅衬底结构的金属层间线具有按顺序的熔融温度 小于500℃的低K电介质,介电K值在2.0-3.8范围内。 第二基板结构还包括布置在金属层间线之间的平坦化的低K电介质和将金属层间线与低K电介质隔开的保护涂层,金属层间线具有小于500°的熔融温度 并且介电K值在2.0-3.8范围内的低K电介质。 最后,第一衬底结构在第一和第二衬底结构的相应的金属层间线处被低温地结合到第二衬底结构。
    • 10. 发明授权
    • High performance mosfet structure having asymmetrical spacer formation
and method of making the same
    • 具有不对称间隔物形成的高性能mosfet结构及其制造方法
    • US5789298A
    • 1998-08-04
    • US743643
    • 1996-11-04
    • Mark I. GardnerFred Hause
    • Mark I. GardnerFred Hause
    • H01L21/336H01L29/78H01L21/3205H01L21/4763
    • H01L29/66659H01L29/6656H01L29/7835
    • A method of fabricating a field effect transistor (FET) having an asymmetrical spacer formation includes the steps of forming a gate oxide and a gate electrode on a semiconductor material of a first conductivity type. The gate electrode includes a first and second side edges proximate first and second regions, respectively, of the semiconductor material. Ions of a second conductivity type are implanted to form lightly doped regions extending at least between the first side edge and the first region and at least between the second side edge and the second region, respectively. Blanket layers of oxide and nitride are then formed on the gate electrode and the semiconductor material. The nitride layer is patterned and a first sidewall spacer is formed in a remaining portion of the nitride layer proximate the second side edge. A second blanket layer of oxide is then formed on the first oxide layer and first sidewall spacer. Lastly, second sidewall spacers are formed in the second oxide layer, wherein a first one of the second sidewall spacers includes oxide of a first lateral dimension proximate the first side edge and wherein a second one of the second sidewall spacers is juxtaposed with the first sidewall spacer to form a composite sidewall spacer of a second lateral dimension greater than the first lateral dimension. A novel FET is disclosed also.
    • 制造具有不对称间隔物形成的场效应晶体管(FET)的方法包括以下步骤:在第一导电类型的半导体材料上形成栅极氧化物和栅电极。 栅极电极包括分别靠近半导体材料的第一和第二区域的第一和第二侧边缘。 植入第二导电类型的离子以形成至少在第一侧边缘和第一区域之间以及至少在第二侧边缘和第二区域之间延伸的轻掺杂区域。 然后在栅电极和半导体材料上形成氧化物层和氮化物层。 图案化氮化物层,并且第一侧壁间隔物形成在靠近第二侧边缘的氮化物层的剩余部分中。 然后在第一氧化物层和第一侧壁间隔物上形成第二覆盖层氧化物。 最后,第二侧壁间隔物形成在第二氧化物层中,其中第二侧壁间隔物中的第一侧壁间隔物包括靠近第一侧边缘的第一侧向尺寸的氧化物,并且其中第二侧壁间隔物中的第二侧壁间隔物与第一侧壁并置 间隔件以形成大于第一横向尺寸的第二横向尺寸的复合侧壁间隔件。 还公开了一种新颖的FET。