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    • 2. 发明授权
    • Hybrid planar and FinFET CMOS devices
    • 混合平面和FinFET CMOS器件
    • US07250658B2
    • 2007-07-31
    • US11122193
    • 2005-05-04
    • Bruce B. DorisDiane C. BoydMeikei LeongThomas S. KanarskyJakub T. KedzierskiMin Yang
    • Bruce B. DorisDiane C. BoydMeikei LeongThomas S. KanarskyJakub T. KedzierskiMin Yang
    • H01L29/772
    • H01L27/1211H01L21/845H01L29/66795H01L29/785
    • The present invention provides an integrated semiconductor circuit containing a planar single gated FET and a FinFET located on the same SOI substrate. Specifically, the integrated semiconductor circuit includes a FinFET and a planar single gated FET located atop a buried insulating layer of an silicon-on-insulator substrate, the planar single gated FET is located on a surface of a patterned top semiconductor layer of the silicon-on-insulator substrate and the FinFET has a vertical channel that is perpendicular to the planar single gated FET. A method of forming a method such an integrated circuit is also provided. In the method, resist imaging and a patterned hard mask are used in trimming the width of the FinFET active device region and subsequent resist imaging and etching are used in thinning the thickness of the FET device area. The trimmed active FinFET device region is formed such that it lies perpendicular to the thinned planar single gated FET device region.
    • 本发明提供一种集成半导体电路,其包含位于同一SOI衬底上的平面单栅极FET和FinFET。 具体地,集成半导体电路包括FinFET和位于绝缘体上硅衬底的掩埋绝缘层顶上的平面单栅极FET,平面单门控FET位于硅 - 硅绝缘体的图案化顶部半导体层的表面上, 绝缘体上的衬底和FinFET具有垂直于平面单门控FET的垂直沟道。 还提供了一种形成集成电路的方法。 在该方法中,抗蚀剂成像和图案化的硬掩模用于修整FinFET有源器件区域的宽度,并且随后的抗蚀剂成像和蚀刻用于减薄FET器件区域的厚度。 经修整的有源FinFET器件区域形成为垂直于薄化的平面单栅极FET器件区域。
    • 6. 发明授权
    • Dual stress memorization technique for CMOS application
    • CMOS应用的双重应力记忆技术
    • US07968915B2
    • 2011-06-28
    • US12538110
    • 2009-08-08
    • Thomas S. KanarskyQiqing OuyangHaizhou Yin
    • Thomas S. KanarskyQiqing OuyangHaizhou Yin
    • H01L21/8238
    • H01L21/823807H01L21/823412H01L21/823468H01L21/823864H01L29/7843H01L29/7847
    • A stress-transmitting dielectric layer is formed on the at least one PFET and the at least one NFET. A tensile stress generating film, such as a silicon nitride, is formed on the at least one NFET by blanket deposition and patterning. A compressive stress generating film, which may be a refractive metal nitride film, is formed on the at least one PFET by a blanket deposition and patterning. An encapsulating dielectric film is deposited over the compress stress generating film. The stress is transferred from both the tensile stress generating film and the compressive stress generating film into the underlying semiconductor structures. The magnitude of the transferred compressive stress from the refractory metal nitride film may be from about 5 GPa to about 20 GPa. The stress is memorized during an anneal and remains in the semiconductor devices after the stress generating films are removed.
    • 在至少一个PFET和至少一个NFET上形成应力传导电介质层。 通过毯式沉积和图案化在至少一个NFET上形成拉伸应力产生膜,例如氮化硅。 可以通过覆盖沉积和图案化在至少一个PFET上形成可以是折射金属氮化物膜的压应力产生膜。 在压缩应力产生膜上沉积密封电介质膜。 应力从拉伸应力产生膜和压缩应力产生膜转移到下面的半导体结构中。 来自难熔金属氮化物膜的转移的压缩应力的大小可以为约5GPa至约20GPa。 应力在退火期间被记忆,并且在除去应力产生膜之后保留在半导体器件中。
    • 7. 发明申请
    • DUAL STRESS MEMORIZATION TECHNIQUE FOR CMOS APPLICATION
    • CMOS应用的双应力记忆技术
    • US20080303101A1
    • 2008-12-11
    • US11758291
    • 2007-06-05
    • Thomas S. KanarskyQiqing OuyangHaizhou Yin
    • Thomas S. KanarskyQiqing OuyangHaizhou Yin
    • H01L27/092H01L21/8238
    • H01L21/823807H01L21/823412H01L21/823468H01L21/823864H01L29/7843H01L29/7847
    • A stress-transmitting dielectric layer is formed on the at least one PFET and the at least one NFET. A tensile stress generating film, such as a silicon nitride, is formed on the at least one NFET by blanket deposition and patterning. A compressive stress generating film, which may be a refractive metal nitride film, is formed on the at least one PFET by a blanket deposition and patterning. An encapsulating dielectric film is deposited over the compress stress generating film. The stress is transferred from both the tensile stress generating film and the compressive stress generating film into the underlying semiconductor structures. The magnitude of the transferred compressive stress from the refractory metal nitride film may be from about 5 GPa to about 20 GPa. The stress is memorized during an anneal and remains in the semiconductor devices after the stress generating films are removed,
    • 在至少一个PFET和至少一个NFET上形成应力传导电介质层。 通过毯式沉积和图案化在至少一个NFET上形成拉伸应力产生膜,例如氮化硅。 可以通过覆盖沉积和图案化在至少一个PFET上形成可以是折射金属氮化物膜的压应力产生膜。 在压缩应力产生膜上沉积密封电介质膜。 应力从拉伸应力产生膜和压缩应力产生膜转移到下面的半导体结构中。 来自难熔金属氮化物膜的转移的压缩应力的大小可以为约5GPa至约20GPa。 应力在退火期间被记忆,并且在除去应力产生膜之后保留在半导体器件中,
    • 10. 发明授权
    • Dual stress memorization technique for CMOS application
    • CMOS应用的双重应力记忆技术
    • US07834399B2
    • 2010-11-16
    • US11758291
    • 2007-06-05
    • Thomas S. KanarskyQiqing OuyangHaizhou Yin
    • Thomas S. KanarskyQiqing OuyangHaizhou Yin
    • H01L29/76
    • H01L21/823807H01L21/823412H01L21/823468H01L21/823864H01L29/7843H01L29/7847
    • A stress-transmitting dielectric layer is formed on the at least one PFET and the at least one NFET. A tensile stress generating film, such as a silicon nitride, is formed on the at least one NFET by blanket deposition and patterning. A compressive stress generating film, which may be a refractive metal nitride film, is formed on the at least one PFET by a blanket deposition and patterning. An encapsulating dielectric film is deposited over the compress stress generating film. The stress is transferred from both the tensile stress generating film and the compressive stress generating film into the underlying semiconductor structures. The magnitude of the transferred compressive stress from the refractory metal nitride film may be from about 5 GPa to about 20 GPa. The stress is memorized during an anneal and remains in the semiconductor devices after the stress generating films are removed.
    • 在至少一个PFET和至少一个NFET上形成应力传导电介质层。 通过毯式沉积和图案化在至少一个NFET上形成拉伸应力产生膜,例如氮化硅。 可以通过覆盖沉积和图案化在至少一个PFET上形成可以是折射金属氮化物膜的压应力产生膜。 在压缩应力产生膜上沉积密封电介质膜。 应力从拉伸应力产生膜和压缩应力产生膜转移到下面的半导体结构中。 来自难熔金属氮化物膜的转移的压缩应力的大小可以为约5GPa至约20GPa。 应力在退火期间被记忆,并且在除去应力产生膜之后保留在半导体器件中。