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    • 1. 发明申请
    • BORDERLESS INTERCONNECTION PROCESS
    • 无边界连接过程
    • US20050064721A1
    • 2005-03-24
    • US10667013
    • 2003-09-19
    • Ming-Huan TsaiRu-Chian ChiangHun-Jan Tao
    • Ming-Huan TsaiRu-Chian ChiangHun-Jan Tao
    • H01L21/302H01L21/311H01L21/60
    • H01L21/76897H01L21/31105H01L21/31116
    • A new method for fabricating a borderless interconnection in a semiconductor device is provided. During fabrication, the device includes an interlevel dielectric (ILD) layer, a metal silicide layer, and a stop layer disposed between the ILD and metal silicide layers. The stop layer may be formed of silicon nitride or silicon oxynitride, and the metal silicide layer may be a nickel silicide. The method includes etching the ILD layer to expose at least a portion of the stop layer and then performing a nitrogen plasma treatment on the exposed portion of the stop layer. After the treatment, the exposed portion of the stop layer is removed to provide the interconnection hole. Because of the plasma treatment, damage to the metal silicide underlying the stop layer will be minimized when the stop layer is removed.
    • 提供了一种在半导体器件中制造无边界互连的新方法。 在制造期间,器件包括层间电介质(ILD)层,金属硅化物层和设置在ILD和金属硅化物层之间的阻挡层。 阻挡层可以由氮化硅或氮氧化硅形成,并且金属硅化物层可以是硅化镍。 该方法包括蚀刻ILD层以暴露停止层的至少一部分,然后在停止层的暴露部分上进行氮等离子体处理。 在处理之后,去除停止层的暴露部分以提供互连孔。 由于等离子体处理,当停止层被去除时,对停止层下面的金属硅化物的损坏将被最小化。
    • 2. 发明授权
    • Borderless interconnection process
    • 无边界互连过程
    • US06878639B1
    • 2005-04-12
    • US10667013
    • 2003-09-19
    • Ming-Huan TsaiRu-Chian ChiangHun-Jan Tao
    • Ming-Huan TsaiRu-Chian ChiangHun-Jan Tao
    • H01L21/302H01L21/311H01L21/60
    • H01L21/76897H01L21/31105H01L21/31116
    • A new method for fabricating a borderless interconnection in a semiconductor device is provided. During fabrication, the device includes an interlevel dielectric (ILD) layer, a metal silicide layer, and a stop layer disposed between the ILD and metal silicide layers. The stop layer may be formed of silicon nitride or silicon oxynitride, and the metal silicide layer may be a nickel silicide. The method includes etching the ILD layer to expose at least a portion of the stop layer and then performing a nitrogen plasma treatment on the exposed portion of the stop layer. After the treatment, the exposed portion of the stop layer is removed to provide the interconnection hole. Because of the plasma treatment, damage to the metal silicide underlying the stop layer will be minimized when the stop layer is removed.
    • 提供了一种在半导体器件中制造无边界互连的新方法。 在制造期间,器件包括层间电介质(ILD)层,金属硅化物层和设置在ILD和金属硅化物层之间的阻挡层。 阻挡层可以由氮化硅或氮氧化硅形成,并且金属硅化物层可以是硅化镍。 该方法包括蚀刻ILD层以暴露停止层的至少一部分,然后在停止层的暴露部分上进行氮等离子体处理。 在处理之后,去除停止层的暴露部分以提供互连孔。 由于等离子体处理,当停止层被去除时,对停止层下面的金属硅化物的损坏将被最小化。
    • 3. 发明授权
    • Photoresist intensive patterning and processing
    • 光刻胶强化图案和加工
    • US07078351B2
    • 2006-07-18
    • US10361875
    • 2003-02-10
    • Yuan-Hung ChiuMing-Huan TsaiHun-Jan TaoJeng-Horng Chen
    • Yuan-Hung ChiuMing-Huan TsaiHun-Jan TaoJeng-Horng Chen
    • H01L21/302
    • H01L21/0276H01L21/0332H01L21/30604H01L21/3081H01L21/31116H01L21/31144H01L21/3144H01L21/3145H01L21/76802
    • A layer of Anti Reflective Coating (ARC) is first deposited over the surface of a silicon based or oxide based semiconductor surface, a dual hardmask is deposited over the surface of the layer of ARC. A layer of soft mask material is next coated over the surface of the dual hardmask layer, the layer of soft mask material is exposed, creating a soft mask material mask. The upper layer of the dual hardmask layer is next patterned in accordance with the soft mask material mask, the soft mask material mask is removed from the surface. The lower layer of the hardmask layer is then patterned after which the layer of ARC is patterned, both layers are patterned in accordance with the patterned upper layer of the dual hardmask layer. The substrate is now patterned in accordance with the patterned upper and lower layer of the dual hardmask layer and the patterned layer of ARC. The patterned upper and lower layers of the hardmask layer and the patterned layer of ARC are removed from the surface of the silicon based or oxide based semiconductor surface.
    • 首先将抗反射涂层(ARC)沉积在硅基或氧化物基半导体表面的表面上,双重硬掩模沉积在ARC层的表面上。 然后将一层软掩模材料涂覆在双重硬掩模层的表面上,该软掩模材料层被暴露,形成柔软的掩模材料掩模。 根据软掩模材料掩模,双硬掩模层的上层接下来图案化,从表面去除软掩模材料掩模。 然后对硬掩模层的下层进行图案化,之后对ARC层进行构图,根据双重硬掩模层的图案化上层对两层进行图案化。 衬底现在根据双重硬掩模层的图案化的上下层和ARC的图案化层进行图案化。 从硅基或氧化物基半导体表面的表面去除硬掩模层的图案化的上层和下层以及ARC的图案化层。
    • 5. 发明授权
    • Bi-level resist structure and fabrication method for contact holes on semiconductor substrates
    • 半导体衬底上的接触孔的双层抗蚀剂结构和制造方法
    • US06780782B1
    • 2004-08-24
    • US10357579
    • 2003-02-04
    • Ming-Huan TsaiHun-Jan TaoTsang Jiuh WuJu Wang Hsu
    • Ming-Huan TsaiHun-Jan TaoTsang Jiuh WuJu Wang Hsu
    • H01L21302
    • H01L21/76802H01L21/31116H01L21/31138H01L21/31144
    • An improved method of etching very small contact holes through dielectric layers used to separate conducting layers in multilevel integrated circuits formed on semiconductor substrates has been developed. The method uses bi-level ARC coatings in the resist structure and a unique combination of gaseous components in a plasma etching process which is used to dry develop the bi-level resist mask as well as etch through a silicon oxide dielectric layer. The gaseous components comprise a mixture of a fluorine containing gas, such as C4F8, C5F8, C4F6, CHF3 or similar species, an inert gas, such as helium or argon, an optional weak oxidant, such as CO or O2 or similar species, and a nitrogen source, such as N2, N2O, or NH3 or similar species. The patterned masking layer can be used to reliably etch contact holes in silicon oxide layers on semiconductor substrates, where the holes have diameters of about 0.1 micron or less.
    • 已经开发了一种通过介电层蚀刻非常小的接触孔的改进方法,其用于在半导体衬底上形成的多层集成电路中分离导电层。 该方法在抗蚀剂结构中使用双层ARC涂层,并且在等离子体蚀刻工艺中使用气态组分的独特组合,其用于干燥显影双电平抗蚀剂掩模以及通过氧化硅介电层进行蚀刻。 气态组分包括含氟气体如C 4 F 8,C 5 F 8,C 4 F 6,CHF 3或类似物质,惰性气体如氦气或氩气,任选的弱氧化剂如CO或O 2或类似物质的混合物,以及 氮源,例如N 2,N 2 O或NH 3或类似物质。 图案化掩模层可用于可靠地蚀刻半导体衬底上的氧化硅层中的接触孔,其中孔的直径为约0.1微米或更小。
    • 7. 发明授权
    • Gate structure and method of forming the gate dielectric with mini-spacer
    • 用微型间隔物形成栅极电介质的栅结构和方法
    • US06867084B1
    • 2005-03-15
    • US10263541
    • 2002-10-03
    • Yuan-Hung ChiuMing-Huan TsaiFang-Cheng ChenHun-Jan Tao
    • Yuan-Hung ChiuMing-Huan TsaiFang-Cheng ChenHun-Jan Tao
    • H01L21/265H01L21/8238H01L29/78H01L29/80
    • H01L21/2652H01L29/517H01L29/518H01L29/78
    • A field effect transistor gate structure and a method of fabricating the gate structure with a high-k gate dielectric material and high-k spacer are described. A gate pattern or trench is first etched in a dummy organic or inorganic film deposited over a silicon substrate with source/drain regions. A high-k dielectric material liner is then deposited on all exposed surfaces. Excess poly-silicon gate conductor film is then deposited within and over the trench to provide adequate overburden. Poly-silicon is then planarized with chemical mechanical polishing or etch-back methods such that the high-k material film on top of the dummy film surface is removed during this step. In the final step, the dummy film is disposed off, leaving the final transistor gate structure with high-k gate dielectric and high-k spacer surrounding the gate conductor poly-silicon, with the entire gate structure fabricated to form an FET device on a silicon substrate.
    • 描述了场效应晶体管栅极结构和制造具有高k栅极介电材料和高k隔离物的栅极结构的方法。 首先在具有源极/漏极区域的硅衬底上沉积的虚拟有机或无机膜中蚀刻栅极图案或沟槽。 然后将高k电介质材料衬垫沉积在所有暴露的表面上。 然后将过多的多晶硅栅极导体膜沉积在沟槽内和沟槽上,以提供足够的覆盖层。 然后通过化学机械抛光或蚀刻方法对多晶硅进行平面化,使得在该步骤期间去除虚拟膜表面顶部的高k材料膜。 在最后的步骤中,将虚设薄膜放开,留下最终的晶体管栅极结构,其中高k栅极电介质和围绕栅极导体多晶硅的高k隔离层,整个栅极结构被制成以形成FET器件 硅衬底。