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    • 42. 发明授权
    • Peeling free metal silicide films using rapid thermal anneal
    • 使用快速热退火剥离游离金属硅化物膜
    • US5393685A
    • 1995-02-28
    • US926299
    • 1992-08-10
    • Chue-San YooTing-Hwang Lin
    • Chue-San YooTing-Hwang Lin
    • H01L21/28H01L21/285H01L21/336H01L21/265
    • H01L29/6659H01L21/28061H01L21/28518
    • A method is described for fabricating a lightly doped drain MOSFET integrated circuit device which provides a peeling-free metal silicide gate electrode devices. The process uses annealing of the gate oxide, the polysilicon layer and the metal silicide layer using a rapid thermal annealing process at a temperature more than about 1000.degree. C. and for a time of between about 30 to 60 seconds. A pattern of lightly doped regions is formed in the substrate by ion implantation using the structures as the mask. A low temperature silicon dioxide layer is blanket deposited over the surfaces of the structure. The blanket layer is etched to form a dielectric spacer structure upon the sidewalls of each of the gate electrode structures and over the adjacent portions of the substrate, and to remove the silicon oxide layer from the top surfaces of metal silicide layer. Driving in the pattern of lightly doped regions is accomplished by rapid thermal annealing at a temperature of more than about 1000.degree. C. and for a time of between about 30 to 60 seconds with the metal silicide layer having no covering thereover. Heavily doped regions are now formed in the substrate to produce the lightly doped drain under the spacer structure of an MOS FET device. A passivation layer is formed over the structures and electrical connecting structures thereover.
    • 描述了一种制造提供无剥离金属硅化物栅电极器件的轻掺杂漏极MOSFET集成电路器件的方法。 该方法使用快速热退火工艺在大于约1000℃的温度和大约30至60秒的时间内对栅极氧化物,多晶硅层和金属硅化物层进行退火。 通过使用该结构作为掩模的离子注入在衬底中形成轻掺杂区域的图案。 低温二氧化硅层被覆盖在该结构的表面上。 蚀刻覆盖层以在每个栅电极结构的侧壁上和衬底的相邻部分之上形成介电间隔物结构,并从金属硅化物层的顶表面去除氧化硅层。 通过在大于约1000℃的温度下快速热退火并且在其间没有覆盖的金属硅化物层的时间为约30至60秒之间来实现轻掺杂区域的驱动。 现在在衬底中形成重掺杂区域,以在MOS FET器件的间隔结构之下产生轻掺杂漏极。 在其上的结构和电连接结构上形成钝化层。
    • 43. 发明授权
    • Mask and blank storage inner gas
    • 面罩和空白存储内部气体
    • US08268541B2
    • 2012-09-18
    • US11733471
    • 2007-04-10
    • Cheng-Ming LinChue San Yoo
    • Cheng-Ming LinChue San Yoo
    • G03F7/20
    • G03F7/70916G03F7/70866
    • The present disclosure provides a lithography apparatus. The lithography apparatus includes a radiation source providing a radiation energy with a wavelength selected from the group consisting of 193 nm, 248 nm, and 365 nm; a lens system configured approximate to the radiation source; a mask chamber proximate to the lens system, configured to hold a mask and operable to provide a single atom gas to the mask chamber; and a substrate stage configured to hold a substrate and receive the radiation energy through the lens system and the mask during an exposing process.
    • 本公开提供一种光刻设备。 光刻设备包括:辐射源,其提供波长选自193nm,248nm和365nm的波长的辐射能; 配置为近似于辐射源的透镜系统; 靠近透镜系统的掩模室,被配置为保持掩模并可操作以向掩模室提供单个原子气体; 以及衬底台,被配置为在曝光过程期间保持衬底并且通过透镜系统和掩模接收辐射能量。
    • 44. 发明申请
    • PHOTOMASK HAZE REDUCTION VIA VENTILATION
    • 照片通过通风降低烟雾
    • US20080266534A1
    • 2008-10-30
    • US11740166
    • 2007-04-25
    • Chue San Yoo
    • Chue San Yoo
    • G03B27/42
    • G03F1/64
    • Where a framed pellicle is mounted on a photomask, the framed pellicle comprises a pellicle frame and a pellicle membrane coupled to the pellicle frame, the pellicle frame has first and second apertures each communicating a first space surrounded by the photomask and the framed pellicle with a second space outside of the framed pellicle, exposing a photoresist layer formed on a substrate by flowing gas from within the first space to outside the framed pellicle through the first aperture while simultaneously exposing the photoresist layer to ultraviolet light through the pellicle membrane and the photomask.
    • 在框架防护薄膜组件安装在光掩模上的情况下,框架防护薄膜组件包括防护薄膜组件框架和联接到防护薄膜框架上的防护薄膜组件,防护薄膜框架具有第一和第二孔,每个孔与光掩模和框架防护薄膜组件包围的第一空间与 在框架防护薄膜外部的第二空间,通过将气体从第一空间内流过框架防护薄膜通过第一孔而暴露出形成在基板上的光致抗蚀剂层,同时将光致抗蚀剂层暴露于通过防护薄膜和光掩模的紫外光。
    • 46. 发明授权
    • Using oxide junction to cut off sub-threshold leakage in CMOS devices
    • 使用氧化物结切断CMOS器件中的亚阈值泄漏
    • US06200836B1
    • 2001-03-13
    • US09368862
    • 1999-08-06
    • Chue-San Yoo
    • Chue-San Yoo
    • H01L2100
    • H01L29/0653H01L21/26533
    • A new method is provided for the formation of Lightly Doped Drain (LDD) regions in MOS devices. The body of the gate electrode is formed including the self-aligned LDD regions. After the LDD regions have been formed, an oxide implant is performed under an angle into the surface of the substrate on which the MOS device is being formed. This oxide implant forms an oxide layer around the interface between the source/drain regions and the surrounding silicon. The spacers for the gate electrode are formed, the source/drain region implant is completed. This implanted oxygen junction is subjected to a thermal treatment thereby forming an oxide layer around the source/drain regions. This oxide layer eliminates the leakage current across the interface between the source/drain regions and the surrounding silicon further forcing the saturation current between these regions to flow along the surface of the silicon substrate.
    • 提供了一种在MOS器件中形成轻掺杂漏极(LDD)区域的新方法。 形成包括自对准LDD区域的栅电极的主体。 在LDD区域形成之后,在其上形成有MOS器件的衬底的表面上以一定角度进行氧化物注入。 这种氧化物注入在源/漏区和周围的硅之间的界面周围形成氧化物层。 形成用于栅电极的间隔物,完成源极/漏极区域注入。 对该注入的氧结进行热处理,从而在源/漏区周围形成氧化物层。 该氧化物层消除了源极/漏极区域和周围硅之间的界面处的漏电流,进一步迫使这些区域之间的饱和电流沿着硅衬底的表面流动。
    • 47. 发明授权
    • Reduction of the aspect ratio of deep contact holes for embedded DRAM devices
    • 降低嵌入式DRAM器件深度接触孔的长宽比
    • US06168984A
    • 2001-01-02
    • US09419103
    • 1999-10-15
    • Chue-San YooMing-Hsiung ChiangWen-Chuan ChiangCheng-Ming WuTse-Liang Ying
    • Chue-San YooMing-Hsiung ChiangWen-Chuan ChiangCheng-Ming WuTse-Liang Ying
    • H01L218242
    • H01L27/10888H01L27/10814H01L27/10894H01L28/84H01L28/91
    • A process for reducing the aspect ratio, for narrow diameter contact holes, formed in thick insulator layers, used to integrate logic and DRAM memory devices, on the same semiconductor chip, has been developed. The process of reducing the aspect ratio, of these contact holes, features initially forming, via patterning procedures, lower, narrow diameter contact holes, to active device regions, in the logic area, while also forming self-aligned contact openings to source/drain regions in the DRAM memory region. After forming tungsten structures, in the lower, narrow diameter contact holes, polycide bitline, and polysilicon capacitor structures, are formed in the DRAM memory region, via deposition, and patterning, of upper level insulator layers, and polysilicon and polycide conductive layers. Upper, narrow diameter openings, are then formed in the upper level insulator layers, exposing the top surface of tungsten structures, located in the lower, narrow diameter contact holes. The formation of upper tungsten structures, in the upper, narrow diameter contact openings completes the process of forming metal structures, in narrow diameter openings, with reduced aspect ratios, achieved via a two stage contact hole opening, and a two stage metal filling procedure.
    • 已经开发了用于在相同的半导体芯片上将用于集成逻辑和DRAM存储器件的厚的绝缘体层中形成的窄直径接触孔的宽高比减小的方法。 减小这些接触孔的纵横比的过程,其特征在于,通过图案化步骤,在逻辑区域中最初形成较小的窄直径的接触孔到有源器件区域,同时还形成自对准的接触开口到源极/漏极 DRAM存储区域中的区域。 在形成钨结构之后,在下部窄直径的接触孔中,多晶硅位线和多晶硅电容器结构通过上层绝缘体层和多晶硅和多晶硅导电层的沉积和图案形成在DRAM存储区域中。 然后在上层绝缘体层中形成上部,小直径的开口,暴露位于下部较窄直径的接触孔中的钨结构的顶表面。 在上部窄直径接触开口中形成上部钨结构完成了通过两级接触孔开口形成的具有减小的纵横比的窄直径开口中的金属结构的形成和两阶段金属填充程序的过程。