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    • 3. 发明申请
    • Method for Predicting the Migration Time of Ionic Compounds by Electrophoretic Measurement
    • 通过电泳测量预测离子化合物的迁移时间的方法
    • US20070256935A1
    • 2007-11-08
    • US11660676
    • 2005-08-24
    • Masahiro SugimotoTomoyoshi SogaMasaru Tomita
    • Masahiro SugimotoTomoyoshi SogaMasaru Tomita
    • B01D57/02
    • G01N27/447
    • When the migration time of a low molecular weight compound having an unknown migration time in microchip electrophoresis, capillary electrophoresis, or a capillary electrophoresis mass spectrometer is predicted, first, with respect to a substance having a known electrophoretic migration time, characteristic quantities (descriptors) thereof which can be numerically expressed from a structure thereof are computed to predict the relation between the characteristic quantities (descriptors) and the migration time; the migration times of some substances are measured by electrophoresis or an electrophoresis mass spectrometer to learn about the relation; and using the learnt result, the migration time of the substance having an unknown migration time in the electrophoresis or electrophoresis mass spectrometer is predicted from the structure thereof.
    • 当预测在微芯片电泳,毛细管电泳或毛细管电泳质谱仪中具有未知迁移时间的低分子量化合物的迁移时间时,首先,关于具有已知电泳迁移时间的物质,特征量(描述符) 计算其数值表示的结构,以预测特征量(描述符)与迁移时间之间的关系; 通过电泳或电泳质谱仪测量某些物质的迁移时间,以了解关系; 并且使用所获得的结果,从其结构可以预测在电泳或电泳质谱仪中具有未知迁移时间的物质的迁移时间。
    • 6. 发明授权
    • Wafer transfer system, wafer transfer method and automatic guided vehicle system
    • 晶圆转印系统,晶片转印方式和自动导向系统
    • US06721626B2
    • 2004-04-13
    • US10184980
    • 2002-07-01
    • Masaru TomitaShuji Akiyama
    • Masaru TomitaShuji Akiyama
    • G06F700
    • H01L21/681H01L21/67259H01L21/67294Y10S414/137Y10S414/141
    • A central position of a wafer 10 set on a place table 41 is calculated, a turn angle of the place table 41 when the wafer 10 is in the predetermined orientation is calculated based on the calculation result of the central position and positional information of an ID mark 11 received in advance and the quantity of expanding and contracting a transfer arm 30 and the turn angle of a turntable 39 are calculated for setting the wafer 10 such that the ID mark 11 is in the predetermined position and orientation to an OCR 43, and the turn angle of the place table 41 calculated based on the turn angle of the turntable 39 is corrected, the place table 41 is turned only by the corrected turn angle and the wafer 10 is turned and transferred to the OCR 43 by the transfer unit 3.
    • 计算设置在位置台41上的晶片10的中心位置,基于中心位置的计算结果和ID的位置信息来计算晶片10处于预定取向时的位置台41的转角 计算出接收到的标记11,并且计算转印臂30的伸展和收缩量以及转盘39的转动角度,以设置晶片10,使得ID标记11位于OCR43的预定位置和方向上,以及 基于转台39的转角计算的位置台41的转角被校正,位置台41仅通过修正的转角转动,并且晶片10转动并由转印单元3传送到OCR 43 。
    • 7. 发明授权
    • Oxide superconductor and process for producing same
    • 氧化物超导体及其制造方法
    • US06413624B1
    • 2002-07-02
    • US09521271
    • 2000-03-08
    • Masaru TomitaMasato Murakami
    • Masaru TomitaMasato Murakami
    • B23B2704
    • H01L39/126H01L39/247Y10T428/249955
    • An oxide superconductor is capable of assuring a high trapped magnetic field and maintaining its performance for a long period of time without being affected by internal or external forces, such as thermal strain or by corrosive environments. The oxide superconductor contains a resin impregnated layer incorporated with a filler material having a low value of linear thermal expansion coefficient, or contains the resin impregnated layer or a resin impregnated layer incorporated with a filler material and covered with a resin layer incorporated with the filler material having a low value of linear thermal expansion coefficient, or contains an oxide superconductive bulk body having an adhesively covering layer of resin impregnated fabric on the outside surface, or contains an oxide superconductive bulk body having on the surface thereof a resin or a resin-impregnated layer dispersedly incorporated with a filler material.
    • 氧化物超导体能够确保高的捕获磁场并保持其长时间的性能而不受内部或外部力(例如热应变或腐蚀性环境)的影响。 氧化物超导体包含与线膨胀系数低的填充材料结合的树脂浸渍层,或者包含树脂浸渍层或与填充材料结合的树脂浸渍层,并覆盖有填充材料的树脂层 具有低的线性热膨胀系数,或包含在外表面上具有树脂浸渍织物的粘合覆盖层的氧化物超导体,或者包含氧化物超导体,其表面上具有树脂或树脂浸渍 层分散结合有填料。
    • 9. 发明授权
    • Process of producing a superconducting magnet made of a high-temperature bulk superconductor
    • 制造由高温体超导体制成的超导磁体的方法
    • US08512799B2
    • 2013-08-20
    • US11372429
    • 2006-03-09
    • Masaru TomitaMasato Murakami
    • Masaru TomitaMasato Murakami
    • B05D5/12H01L39/24
    • H01L39/126H01F6/00H01L39/2464Y10T29/49014
    • There is established a superconducting magnet made of a high-temperature bulk superconductor and capable of trapping a high magnetic field with ease and stably. The superconducting magnet made of the high-temperature bulk superconductor, for use by trapping a magnetic field, is made of the bulk superconductor with an artificial hole therein, a low-melting metal impregnated into, and filling up at least the artificial hole, and a heat-conducting metal material embedded in portions of the high-temperature bulk superconductor, impregnated with, and filled with the low-melting metal. The superconducting magnet can be produced by a process involving the steps of providing the artificial hole in the high-temperature bulk superconductor, disposing the heat-conducting metal material in at least the artificial hole, applying a process of impregnating and filling up at least the artificial hole with the low-melting metal, and subsequently, executing a process of magnetizing.
    • 建立了由高温体超导体制成的超导磁体,能够容易且稳定地捕获高磁场。 由用于捕获磁场的高温体超导体制成的超导磁体由其中具有人造孔的体超导体制成,浸入并填充至少人造孔的低熔点金属,以及 嵌入高温体超导体部分的导热金属材料,浸渍并填充低熔点金属。 超导磁体可以通过以下步骤制造,该方法包括以下步骤:在高温体超导体中提供人造孔,将导热金属材料设置在至少人造孔中,施加浸渍和填充至少 具有低熔点金属的人造孔,并且随后执行磁化处理。