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    • 1. 发明授权
    • Device and method for cutting semiconductor-crystal bars
    • 用于切割半导体晶体棒的装置和方法
    • US6006737A
    • 1999-12-28
    • US15245
    • 1998-01-29
    • Yoshikazu HayashiMasanori Hashimoto
    • Yoshikazu HayashiMasanori Hashimoto
    • B23H7/02B28D5/04H01L21/304B28D1/08
    • B28D5/045
    • A plurality of wires are stretched in parallel through wire supplying-winding apparatuses and wire-tension adjusting apparatuses. A semiconductor-crystal bar is affixed on an ascent/descent table via a feeding table. The ascent/descent table is capable of being driven to ascend or descend by the ascent/descent apparatus. The wires and the semiconductor-crystal bar are dipped into a high-insulation oil, and discharging is created therebetween to perform cutting. If the resistance of the semiconductor-crystal bar exceeds 1 .OMEGA..multidot.cm, used inert gas is filled into a space within the interior space of an airtight vessel. Then, the high-insulation oil is heated by heaters and is kept at a temperature higher than 150.degree. C. to reduce the resistance of the semiconductor-crystal bar. Therefore, cutting is easily performed. The used inert gas can prevent fire from occurring due to the flaming of the high-insulation oil.
    • 通过线供给卷绕装置和线张力调节装置并行地拉伸多根线。 半导体晶体棒通过馈电台固定在上升/下降台上。 上升/下降台能够被上升/下降装置驱动上升或下降。 将导线和半导体晶体棒浸入高绝缘油中,并在其间形成放电以进行切割。 如果半导体晶体棒的电阻超过1欧米伽xcm,则将惰性气体填充到气密容器的内部空间内。 然后,高绝缘油被加热器加热,并保持在高于150℃的温度,以降低半导体晶体棒的电阻。 因此,容易进行切割。 使用的惰性气体可以防止由于高绝缘油的燃烧而发生火灾。
    • 4. 发明授权
    • Through section shielding construction
    • 通过截面屏蔽结构
    • US07818921B2
    • 2010-10-26
    • US11706874
    • 2007-02-15
    • Kyotani HisashiIzuru MatsubaraKenji SakitaYoshikazu Hayashi
    • Kyotani HisashiIzuru MatsubaraKenji SakitaYoshikazu Hayashi
    • E04B1/346E04B7/16
    • B05C3/10B65G49/0459Y10T74/219
    • A through section shielding construction is disclosed in which a partitioning wall defines a slit-like opening extending along a lateral direction as a moving passage of a penetrating member relative to the partitioning wall, and a plurality of shielding plates for closing the slit-like opening are juxtaposed along the slit-like opening as being suspended pivotally to be pushed open one after another by the penetrating member moving along the slit-like opening. The shielding plates are provided as adjacent pairs, and there is provided an operative coupling mechanism for operably coupling, with each other, two shielding plates constituting each pair in such a manner that in association with one of the paired shielding plates being pushed open in one direction by the penetrating member, the other shielding plate is pivotally opened in the opposite direction to the one direction.
    • 公开了一种截面屏蔽结构,其中分隔壁限定了作为穿透构件相对于分隔壁的移动通道沿着横向方向延伸的狭缝状开口,以及用于封闭狭缝状开口的多个屏蔽板 沿着狭缝状的开口并排地被枢转地悬置,以便沿着狭缝状开口移动的穿透构件一个接一个地将其推开。 屏蔽板设置成相邻的一对,并且设置有操作联接机构,用于可操作地将构成每对的两个屏蔽板彼此可操作地联接,使得与成对的屏蔽板中的一个相互连接,一个在一个屏蔽板中被打开 方向,另一个屏蔽板沿与该一个方向相反的方向枢转地打开。
    • 5. 发明申请
    • High frequency signal level determining device and high frequency signal receiver apparatus using the same
    • 高频信号电平确定装置和使用其的高频信号接收装置
    • US20070041480A1
    • 2007-02-22
    • US10553902
    • 2004-04-21
    • Hiroshi AzakamiMisao TeshimaShougo SasakiYoshikazu Hayashi
    • Hiroshi AzakamiMisao TeshimaShougo SasakiYoshikazu Hayashi
    • H04L27/08
    • H03G3/3068
    • In a high-frequency signal level detection apparatus for detecting an inputted signal level of a high-frequency signal, an AGC circuit executes an AGC on an intermediate frequency (IF) signal obtained by converting a frequency of a received high-frequency signal, using an RFAGC value and an IFAGC value for controlling gains of the high-frequency signal and the IF signal, respectively, based on the IF signal so that an output level of the IF signal is substantially constant. A controller previously measures first and second relational data, indicating an RFAGC value and an IFAGC value relative to the inputted signal level of the received high-frequency signal, respectively, measures the RFAGC and IFAGC values when a high-frequency signal to be measured is received, and detects the inputted signal level of the received high-frequency signal using the measured first and second relational data based on the measured RFAGC and IFAGC values.
    • 在用于检测高频信号的输入信号电平的高频信号电平检测装置中,AGC电路对通过转换接收的高频信号的频率而获得的中频(IF)信号执行AGC,使用 RFAGC值和IFAGC值,用于分别基于IF信号控制高频信号和IF信号的增益,使得IF信号的输出电平基本上恒定。 控制器先前测量相对于接收的高频信号的输入信号电平分别表示RFAGC值和IFAGC值的第一关系数据和第二关系数据,测量待测高频信号为RFAGC和IFAGC值时 基于测量的RFAGC和IFAGC值,使用测量的第一和第二关系数据来接收和检测接收的高频信号的输入信号电平。
    • 7. 发明授权
    • Method for measuring intensity index of odor
    • 测量气味强度指数的方法
    • US5627307A
    • 1997-05-06
    • US559838
    • 1995-11-20
    • Yoshikazu Hayashi
    • Yoshikazu Hayashi
    • G01N1/38G01N33/00G01N27/00G01N1/00
    • G01N33/0031G01N1/38G01N33/0018
    • An odor intensity index measuring apparatus is provided for measuring odor intensity objectively and easily for various types of odor. Sample air is diluted with odorless air at a desired scale factor in a dilution unit. The diluted air is fed through an air duct to an odorometer. Corresponding to the intensity of odor, voltage V is emitted from the odorometer. In an electronic control unit, the scale factor at which sample air is diluted by the dilution unit is gradually increased. The dilution scale factor which is reached when the output voltage from the odorometer becomes lower than the specified value indicating the odorless condition is displayed on a liquid crystal display. Like the conventional three bag odor comparison method, the odor intensity index can be measured in the same manner for various types of odor. Different from the conventional method, the degree of the odor intensity can be measured objectively without relying on the human sense of smell.
    • 提供气味强度指标测量装置,用于客观且容易地测量各种气味的气味强度。 样品空气以稀释单元中所需的比例因子用无臭的空气稀释。 稀释的空气通过空气管道送入气味计。 对应于气味强度,气味计发出电压V. 在电子控制单元中,通过稀释单元稀释样品空气的比例因子逐渐增加。 当气味计的输出电压变得低于指示无臭状态的指定值时达到的稀释比例因子显示在液晶显示器上。 像传统的三袋气味比较方法一样,可以以相同的方式测量各种气味的气味强度指数。 与常规方法不同,气味强度的程度可以客观地测量,而不依赖于人的嗅觉。