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    • 3. 发明授权
    • Strained-silicon CMOS device and method
    • 应变硅CMOS器件及方法
    • US07227205B2
    • 2007-06-05
    • US10930404
    • 2004-08-31
    • Andres BryantQiqing OuyangKern Rim
    • Andres BryantQiqing OuyangKern Rim
    • H01L29/76
    • H01L29/165H01L29/1054H01L29/24H01L29/7842H01L29/7843
    • The present invention provides a semiconductor device and a method of forming thereof, in which a uniaxial strain is produced in the device channel of the semiconductor device. The uniaxial strain may be in tension or in compression and is in a direction parallel to the device channel. The uniaxial strain can be produced in a biaxially strained substrate surface by strain inducing liners, strain inducing wells or a combination thereof. The uniaxial strain may be produced in a relaxed substrate by the combination of strain inducing wells and a strain inducing liner. The present invention also provides a means for increasing biaxial strain with strain inducing isolation regions. The present invention further provides CMOS devices in which the device regions of the CMOS substrate may be independently processed to provide uniaxially strained semiconducting surfaces in compression or tension.
    • 本发明提供半导体器件及其形成方法,其中在半导体器件的器件沟道中产生单轴应变。 单轴应变可以处于张力或压缩状态,并且在平行于装置通道的方向上。 单轴应变可以通过应变诱导衬片,应变诱导孔或其组合在双轴应变衬底表面中产生。 单轴应变可以通过应变诱导孔和应变诱导衬垫的组合在松弛的衬底中产生。 本发明还提供了用应变诱导隔离区增加双轴应变的方法。 本发明还提供了CMOS器件,其中可以独立地处理CMOS衬底的器件区域以提供压缩或张力的单轴应变半导体表面。
    • 4. 发明申请
    • SOI bipolar transistors with reduced self heating
    • 具有自加热降低的SOI双极晶体管
    • US20070001262A1
    • 2007-01-04
    • US11173540
    • 2005-07-01
    • Qiqing OuyangKai Xiu
    • Qiqing OuyangKai Xiu
    • H01L27/082
    • H01L21/84H01L21/8249H01L27/0623H01L27/1203
    • A bipolar transistor includes a collector located over a substrate; and a heat conductive path connecting the substrate to the collector. The heat conductive path is filled with a heat conductive material such as metal or polysilicon. In one embodiment the heat conductive path runs through the collector to extract heat from the collector and drain it to the substrate. In alternate embodiments, the transistor can be a vertical or a lateral device. According to another embodiment, an integrated circuit using BiCMOS technology comprises pnp and npn bipolar transistors with heat conduction from collector to substrate and possibly p-channel and n-channel MOSFETS. According to yet another embodiment, a method for making a transistor in an integrated network comprises steps of etching the heat conducting path through the collector and to the substrate and fill with heat conductive material to provide a heat drain for the transistor comprising the collector.
    • 双极晶体管包括位于衬底上方的集电极; 以及将基板连接到集电体的导热路径。 导热路径填充有诸如金属或多晶硅的导热材料。 在一个实施例中,导热路径穿过收集器以从集电器提取热量并将其排出到基板。 在替代实施例中,晶体管可以是垂直或横向装置。 根据另一实施例,使用BiCMOS技术的集成电路包括具有从集电极到衬底以及可能的p沟道和n沟道MOSFET的热传导的pnp和npn双极晶体管。 根据另一个实施例,一种用于在集成网络中制造晶体管的方法包括以下步骤:蚀刻通过集电器和衬底的导热路径,并填充导热材料,以为包括集电器的晶体管提供散热。
    • 8. 发明授权
    • High mobility heterojunction transistor and method
    • 高迁移率异质结晶体管及方法
    • US06319799B1
    • 2001-11-20
    • US09568091
    • 2000-05-09
    • Qiqing OuyangAl F. Tasch, Jr.Sanjay Kumar Banerjee
    • Qiqing OuyangAl F. Tasch, Jr.Sanjay Kumar Banerjee
    • H01L21425
    • H01L29/1054H01L29/7782
    • A heterojunction transistor with high mobility carriers in the channel region includes a source region and a drain region formed in a semiconductor body with the source region and the drain region comprising doped semiconductor alloys separated from the substrate by heterojunctions. A channel region is provided between the source region and the drain region comprising an undoped layer of an alloy of the semiconductor material and a deposited layer of material of the semiconductor body overlying the undoped layer. A gate electrode is formed on a gate oxide over the channel region. In fabricating the high mobility heterojunction transistor, the spaced source and drain regions are formed in the substrate by implanting dopant of conductivity type opposite to the substrate and a material in the alloy and then annealing the structure to form the alloy of the semiconductor material under the undoped layer.
    • 在沟道区域中具有高迁移率载流子的异质结晶体管包括形成在半导体本体中的源极区和漏极区,源极区和漏极区包括通过异质结从衬底分离的掺杂半导体合金。 在源极区域和漏极区域之间设置有沟道区域,该区域包括半导体材料的合金的未掺杂层和覆盖未掺杂层的半导体器件的沉积层。 在沟道区上的栅极氧化物上形成栅电极。 在制造高迁移率异质结晶体管时,通过注入与衬底相反的导电类型的掺杂剂和合金中的材料,在衬底中形成间隔的源极和漏极区域,然后对该结构进行退火,以形成半导体材料的合金 未掺杂层
    • 9. 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。
    • 10. 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,