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    • 3. 发明授权
    • Method for fabricating electronic device
    • 电子设备制造方法
    • US07319061B2
    • 2008-01-15
    • US11586586
    • 2006-10-26
    • Satoshi ShibataFumitoshi KawaseHisako KamiyanagiEmi Kanazaki
    • Satoshi ShibataFumitoshi KawaseHisako KamiyanagiEmi Kanazaki
    • H01L21/336
    • H01L21/26586H01L29/6659H01L29/7833
    • In a method for fabricating an electronic device including a transistor with a drain extension structure, a correspondence between a size of a gate electrode of the transistor and ion implantation conditions or heat treatment conditions for forming the drain extension structure is previously obtained. This correspondence satisfies that the transistor has a given threshold voltage. After formation of the gate electrode and measurement of the size of the gate electrode, ion implantation conditions or heat treatment conditions for forming the drain extension structure are set based on the previously-obtained correspondence and the measured size of the gate electrode. Ion implantation or heat treatment for forming the drain extension structure is performed under the ion implantation conditions or heat treatment conditions that have been set.
    • 在制造包括具有漏极延伸结构的晶体管的电子器件的方法中,预先获得晶体管的栅电极的尺寸和离子注入条件或用于形成漏极延伸结构的热处理条件之间的对应关系。 该对应性满足晶体管具有给定的阈值电压。 在形成栅电极并测量栅电极的尺寸之后,基于先前获得的对应关系和所测量的栅电极的尺寸来设定用于形成漏极延伸结构的离子注入条件或热处理条件。 用于形成漏极延伸结构的离子注入或热处理在已设定的离子注入条件或热处理条件下进行。
    • 4. 发明授权
    • Method for fabricating electronic device
    • 电子设备制造方法
    • US07282416B2
    • 2007-10-16
    • US11241950
    • 2005-10-04
    • Satoshi ShibataFumitoshi KawaseHisako KamiyanagiEmi Kanazaki
    • Satoshi ShibataFumitoshi KawaseHisako KamiyanagiEmi Kanazaki
    • H01L21/336
    • H01L21/26586H01L29/6659H01L29/7833
    • In a method for fabricating an electronic device including a transistor with a drain extension structure, a correspondence between a size of a gate electrode of the transistor and ion implantation conditions or heat treatment conditions for forming the drain extension structure is previously obtained. This correspondence satisfies that the transistor has a given threshold voltage. After formation of the gate electrode and measurement of the size of the gate electrode, ion implantation conditions or heat treatment conditions for forming the drain extension structure are set based on the previously-obtained correspondence and the measured size of the gate electrode. Ion implantation or heat treatment for forming the drain extension structure is performed under the ion implantation conditions or heat treatment conditions that have been set.
    • 在制造包括具有漏极延伸结构的晶体管的电子器件的方法中,预先获得晶体管的栅电极的尺寸和离子注入条件或用于形成漏极延伸结构的热处理条件之间的对应关系。 该对应性满足晶体管具有给定的阈值电压。 在形成栅电极并测量栅电极的尺寸之后,基于先前获得的对应关系和所测量的栅电极的尺寸来设定用于形成漏极延伸结构的离子注入条件或热处理条件。 用于形成漏极延伸结构的离子注入或热处理在已设定的离子注入条件或热处理条件下进行。
    • 6. 发明申请
    • Method for fabricating electronic device
    • 电子设备制造方法
    • US20060079044A1
    • 2006-04-13
    • US11241950
    • 2005-10-04
    • Satoshi ShibataFumitoshi KawaseHisako KamiyanagiEmi Kanazaki
    • Satoshi ShibataFumitoshi KawaseHisako KamiyanagiEmi Kanazaki
    • H01L21/8234
    • H01L21/26586H01L29/6659H01L29/7833
    • In a method for fabricating an electronic device including a transistor with a drain extension structure, a correspondence between a size of a gate electrode of the transistor and ion implantation conditions or heat treatment conditions for forming the drain extension structure is previously obtained. This correspondence satisfies that the transistor has a given threshold voltage. After formation of the gate electrode and measurement of the size of the gate electrode, ion implantation conditions or heat treatment conditions for forming the drain extension structure are set based on the previously-obtained correspondence and the measured size of the gate electrode. Ion implantation or heat treatment for forming the drain extension structure is performed under the ion implantation conditions or heat treatment conditions that have been set.
    • 在制造包括具有漏极延伸结构的晶体管的电子器件的方法中,预先获得晶体管的栅电极的尺寸和离子注入条件或用于形成漏极延伸结构的热处理条件之间的对应关系。 该对应性满足晶体管具有给定的阈值电压。 在形成栅电极并测量栅电极的尺寸之后,基于先前获得的对应关系和所测量的栅电极的尺寸来设定用于形成漏极延伸结构的离子注入条件或热处理条件。 用于形成漏极延伸结构的离子注入或热处理在已设定的离子注入条件或热处理条件下进行。
    • 7. 发明申请
    • Resin film evaluation method and method for manufacturing a semiconductor device
    • 树脂膜评价方法及半导体装置的制造方法
    • US20080128616A1
    • 2008-06-05
    • US11987185
    • 2007-11-28
    • Hisako KamiyanagiSatoshi SibataReiki KanekiKohei Miyagawa
    • Hisako KamiyanagiSatoshi SibataReiki KanekiKohei Miyagawa
    • G01N23/00H01L21/66
    • G01N23/227H01L22/14H01L22/24H01L2924/0002H01L2924/00
    • In the resin film evaluation method and method for manufacturing a semiconductor device applying the resin film evaluation method of the present invention, first, a substrate having a resin film formed on an insulating film with an opening in which the surface of the insulating film is exposed is irradiated with charged energetic particles. Then, the surface potentials of the substrate surface irradiated with charged energetic particles are measured. Based on the measurements, the difference in surface potential between the resin film and the insulating film exposed in the opening is obtained. Based on the difference in surface potential, a physical quantity such as the resin film residue count obtained after a given treatment is predicted. In this way, the degenerated layer formed on the surface of a resin film due to charged energetic particles such as implantation ions can be evaluated in a simple and highly accurate manner.
    • 在施加本发明的树脂膜评价方法的半导体装置的树脂膜评价方法和制造方法中,首先,在绝缘膜上形成有绝缘膜的绝缘膜的表面露出的具有树脂膜的基板 被带电的能量粒子照射。 然后,测量用带电能量粒子照射的基板表面的表面电位。 基于这些测量,获得树脂膜和暴露在开口中的绝缘膜之间的表面电位差。 基于表面电位的差异,预测在给定处理后获得的树脂膜残留物数量等物理量。 以这种方式,可以以简单且高精度的方式评估由于诸如注入离子的带电能量粒子在树脂膜的表面上形成的退化层。
    • 8. 发明授权
    • Resin film evaluation method and method for manufacturing a semiconductor device
    • 树脂膜评价方法及半导体装置的制造方法
    • US07880141B2
    • 2011-02-01
    • US11987185
    • 2007-11-28
    • Hisako KamiyanagiSatoshi SibataReiki KanekiKohei Miyagawa
    • Hisako KamiyanagiSatoshi SibataReiki KanekiKohei Miyagawa
    • G01N23/00H01L21/66
    • G01N23/227H01L22/14H01L22/24H01L2924/0002H01L2924/00
    • In the resin film evaluation method and method for manufacturing a semiconductor device applying the resin film evaluation method of the present invention, first, a substrate having a resin film formed on an insulating film with an opening in which the surface of the insulating film is exposed is irradiated with charged energetic particles. Then, the surface potentials of the substrate surface irradiated with charged energetic particles are measured. Based on the measurements, the difference in surface potential between the resin film and the insulating film exposed in the opening is obtained. Based on the difference in surface potential, a physical quantity such as the resin film residue count obtained after a given treatment is predicted. In this way, the degenerated layer formed on the surface of a resin film due to charged energetic particles such as implantation ions can be evaluated in a simple and highly accurate manner.
    • 在施加本发明的树脂膜评价方法的半导体装置的树脂膜评价方法和制造方法中,首先,在绝缘膜上形成有绝缘膜的绝缘膜的表面露出的具有树脂膜的基板 被带电的能量粒子照射。 然后,测量用带电能量粒子照射的基板表面的表面电位。 基于这些测量,获得树脂膜和暴露在开口中的绝缘膜之间的表面电位差。 基于表面电位的差异,预测在给定处理后获得的树脂膜残留物数量等物理量。 以这种方式,可以以简单且高精度的方式评估由于诸如注入离子的带电能量粒子在树脂膜的表面上形成的退化层。