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    • 1. 发明专利
    • Charged particle analysis apparatus and manufacturing method thereof, and charged particle analysis method using the charged particle analysis apparatus
    • 充电颗粒分析装置及其制造方法,以及使用充电颗粒分析装置的充电颗粒分析方法
    • JP2003035700A
    • 2003-02-07
    • JP2001223544
    • 2001-07-24
    • Kobe Steel Ltd株式会社神戸製鋼所
    • KINOSHITA TAKASHIFUKUMOTO YOSHITOYAMASHITA MOTOHARUINOUE KENICHI
    • G01N27/68C23C16/50H01J9/14H01J49/48H01L21/302H01L21/3065H05H1/00
    • PROBLEM TO BE SOLVED: To provide a charged particle analysis apparatus that measures the energy of charged particles that enter a substrate within a plasma treatment apparatus, is accurate and durable, has a withstand voltage of 1 kV or larger between electrodes, and has a strength for withstanding irradiation with plasma for a long time, a manufacturing method that can accurately align each electrode without using any semiconductor processes, and can manufacture the charged particle analysis apparatus easily at low costs, and an analysis method of charged particles using the charged particle analysis apparatus.
      SOLUTION: After an electrode plate 11, an insulating board 12, an electrode board 21, and an insulating board 22 are overlapped and bonded, a hole section 41 is formed for bonding the electrode board 31 and the insulating board 32. The electrode board is as thick as 1 μm or more, and the insulating board is as thick as 10 μm or more. The electrode board 11 is set to be at the same potential as a silicon wafer 51, the electrode board 21 is set to be at negative potential and the electrode board 31 is set to be at positive potential to the electrode board 11, and a charged particle current is measured by the electrode board 31.
      COPYRIGHT: (C)2003,JPO
    • 要解决的问题:为了提供一种测量进入等离子体处理装置内的基板的带电粒子的能量的带电粒子分析装置,其精度和耐久性在电极之间具有1kV以上的耐电压,并且具有强度 为了耐久地等离子体照射,可以在不使用任何半导体工艺的情况下精确对准每个电极的制造方法,并且可以以低成本容易地制造带电粒子分析装置以及使用带电粒子分析的带电粒子的分析方法 仪器。 解决方案:在电极板11,绝缘板12,电极板21和绝缘板22重叠接合之后,形成用于接合电极板31和绝缘板32的孔部分41.电极板是 厚度为1μm以上,绝缘板厚度为10μm以上。 将电极板11设定为与硅晶片51相同的电位,将电极基板21设定为负电位,将电极基板31设定为电极板11的正电位, 颗粒电流由电极板31测量。
    • 2. 发明专利
    • Method for etching diamond
    • 蚀刻钻石的方法
    • JP2007067453A
    • 2007-03-15
    • JP2006333655
    • 2006-12-11
    • Kobe Steel Ltd株式会社神戸製鋼所
    • YOKOTA YOSHIHIROKAWAKAMI NOBUYUKIKINOSHITA TAKASHI
    • H01L21/3065
    • PROBLEM TO BE SOLVED: To provide a method for etching a carbon-based material, which does not require heating in particular, and keeps very excellent flatness and mask selection ratio, and can obtain a shape faithful to the shape of a mask and a high etching rate.
      SOLUTION: While covering regions on a diamond except for the region to be etched with a mask made of a Si oxide, and applying to a negative electrode the high frequency potential of ≥500 V, preferably ≥1,000 V, with reference to a counter electrode or a reaction container, etching of the diamond is performed by exposing the diamond to a plasma generated from O
      2 , Ar or a mixed gas of O
      2 and Ar.
      COPYRIGHT: (C)2007,JPO&INPIT
    • 要解决的问题:提供一种不需要特别加热的碳基材料的蚀刻方法,并且保持非常优异的平坦度和掩模选择比,并且可以获得忠实于掩模形状的形状 和高蚀刻速率。 解决方案:除了用Si氧化物掩模蚀刻的区域外的金刚石覆盖区域,并且向负极施加≥500V,优选≥1000V的高频电位,参考 对电极或反应容器,通过将金刚石暴露于由O 2 SB,Ar或O SB 2和/或SB 2的混合气体产生的等离子体,进行金刚石的蚀刻 。 版权所有(C)2007,JPO&INPIT
    • 3. 发明专利
    • Semiconductor device for evaluating damage and method for evaluating damage
    • 用于评估损害的半导体器件和评估损害的方法
    • JP2002368055A
    • 2002-12-20
    • JP2001177688
    • 2001-06-12
    • Kobe Steel Ltd株式会社神戸製鋼所
    • KINOSHITA TAKASHIFUKUMOTO YOSHITO
    • H01L21/66H01L21/302H01L21/3065
    • PROBLEM TO BE SOLVED: To provide a semiconductor device for evaluating damage and a method for evaluating damage in which the absolute values of a potential and a current can be measured simultaneously in off-line at the time of plasma exposure for predicting the damage by charge up on an actual semiconductor device.
      SOLUTION: A gate oxide film 3 and a field insulation film 2 having a thick film region 2a and a thin film region 2b are formed on the surface of a silicon wafer 1 and an upper electrode 4 is formed to float electrically across them. The silicon wafer 1, the gate oxide film 3 and the upper electrode 4 constitute an MOS capacitor 11. A part of the upper electrode 4 is extended from the thick film region 2a of the field insulation film 2 in the direction opposite to the gate oxide film 3 and held in a cavity above the thin film region 2b to form a cantilever 4a. The silicon wafer 1, the thin film region 2b and the cantilever 4a constitute a voltage storage element 12.
      COPYRIGHT: (C)2003,JPO
    • 要解决的问题:提供用于评估损伤的半导体器件和评估损伤的方法,其中可以在等离子体暴露时在离线时同时测量电位和电流的绝对值以预测电荷损害 在实际的半导体器件上。 解决方案:在硅晶片1的表面上形成具有厚膜区域2a和薄膜区域2b的栅极氧化膜3和场绝缘膜2,并且形成上电极4,以使电极跨越它们。 硅晶片1,栅氧化膜3和上电极4构成MOS电容器11.上电极4的一部分从场绝缘膜2的厚膜区域2a向与栅极氧化物相反的方向延伸 膜3并保持在薄膜区域2b上方的空腔中以形成悬臂4a。 硅晶片1,薄膜区域2b和悬臂4a构成电压存储元件12。
    • 8. 发明专利
    • SUPERCRITICAL DRYER
    • JP2001060575A
    • 2001-03-06
    • JP23438799
    • 1999-08-20
    • KOBE STEEL LTD
    • FUKUMOTO YOSHITONAGASE YOSHIYUKIKINOSHITA TAKASHISUZUKI KOHEIINOUE KENICHISAKASHITA YOSHIHIKO
    • H01L21/304H01L21/316
    • PROBLEM TO BE SOLVED: To reduce the heat capacity of a supercritical medium container, and at the same time, to facilitate maintaining of pressure in the container relatively easily by positioning the container in an external container and controlling the pressure in the container via the pressure in the external container. SOLUTION: A supercritical medium container 10, containing an object 8 to be treated and a medium 7 is positioned in an external container 11, and the container 11 is sealed hermetically. When nitrogen gas is fed into the container 11 under pressure from a cylinder 13 by opening a flow control valve 14 thereafter, a pressure-regulating valve 16a is opened, and the inside of the container 10 is pressurized. When the internal temperature of the container 10 is successively raised by means of an induction coil 18a, the internal pressure of the container 10 becomes higher than that of the container 11, and a medium exhaust valve 16b is opened and the medium 7 is recovered to a recovering container 17a. Then the inside of the container 10 becomes a supercritical state, and supercritical drying progresses. When the nitrogen gas is discharged by opening an exhaust valve 15 thereafter, the exhaust valve 16b is opened, and the medium 7 is recovered. Then, after the container 10 is cooled by making dry nitrogen gas to flow through the container 10, the container 10 is taken out of the container 11, the object 8 is taken out of the container 10.
    • 9. 发明专利
    • PLASMA TREATING METHOD AND DEVICE THEREFOR
    • JPH07320895A
    • 1995-12-08
    • JP10958594
    • 1994-05-24
    • KOBE STEEL LTD
    • NISHIZUKA TETSUYANOZAWA TOSHIHISAKINOSHITA TAKASHI
    • H05H1/46C23C14/54H01L21/302H01L21/3065
    • PURPOSE:To apply a plasma treating process of high repeatability and stability by measuring the electron density of plasma on a real time basis and controlling high-frequency voltage on the basis of the measured electron density of plasma. CONSTITUTION:First, the output of a microwave power supply 10 is changed with the output voltage of a high-frequency power supply 13 kept constant, thereby changing electron density in plasma. Then, while the electron density in plasma is being measured, voltage on the surface of a sample 2 is measured with an electrode mounted thereon. Thereafter, from the result of the measurement, a chart for voltage versus electron density applied to a wafer is obtained. On the basis of data obtained from the measurement, the chart is processed into a new chart for high-frequency output voltage versus electron density. As a result, once the voltage of the sample 2 is specified, a computer 20 as an electron density operation means and a high-frequency voltage control means in common corrects output voltage, so as to correspond to the change of electron density calculated on a real time basis, and controls the high-frequency power supply 13, so as to keep the voltage of the sample 2 constant.