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    • 1. 发明专利
    • Lamp
    • JP2005327517A
    • 2005-11-24
    • JP2004143025
    • 2004-05-13
    • Kyoichi GoshonooYutaka ImaiTatsuo TerawakiKazuhiro Ueda和弘 上田恭一 五所野尾豊 今井達夫 寺脇
    • GOSHONOO KYOICHIIMAI YUTAKATERAWAKI TATSUOUEDA KAZUHIRO
    • F21S13/12F21V37/00
    • PROBLEM TO BE SOLVED: To provide a lamp with little flame damage of a lampwick, capable of preventing pollution caused by soot, fuel leakage at transportation, and evaporation loss of fuel while not in use. SOLUTION: A lampwick holding part, holding an inserted burning part of the lampwick made of inorganic fiber, of which, one part is immersed in liquid fuel in a fuel container, is arranged at an upper part of the fuel container. A lampwick, formed by bundling inorganic fibers like very fine glass fibers with a diameter of about 50 μm to 0.01μm, is used. By the above, a good burning state of not generating soot can be maintained by a good liquid fuel syphoning property due to capillarity, and complete burning due to sufficient fuel supply at burning. Further, leakage of the liquid fuel and evaporation loss of the liquid fuel while not in use is prevented by fitting a lid on the lampwick holding part in a close contact state. COPYRIGHT: (C)2006,JPO&NCIPI
    • 要解决的问题:提供一种具有小的火焰损坏的灯,能够防止烟灰引起的污染,运输时的燃料泄漏和燃料的蒸发损失而不使用。 解决方案:在燃料容器的上部设置有将由无机纤维制成的灯芯的插入燃烧部分浸入燃料容器中的液体燃料中的灯保持部分。 使用通过将无机纤维如直径为约50μm至0.01μm的非常细的玻璃纤维捆扎而形成的灯条。 如上所述,通过由于毛细作用而产生的良好的液体燃料虹吸性,可以保持不产生烟灰的良好燃烧状态,并且由于在燃烧时供应充足的燃料而完全燃烧。 此外,通过在闭合状态下将盖保持在灯维持部上而防止液体燃料的泄漏和不使用的液体燃料的蒸发损失。 版权所有(C)2006,JPO&NCIPI
    • 2. 发明专利
    • Voice reproducing device with repeat reproducing function
    • 具有重复功能的语音再现设备
    • JP2005092169A
    • 2005-04-07
    • JP2003362555
    • 2003-09-17
    • Kazuhiro Ueda和宏 上田
    • UEDA KAZUHIROOKUMURA NOBUTAKA
    • G11B20/10G10L19/00G11B27/10
    • PROBLEM TO BE SOLVED: To realize the repeat reproduction of only a last conversation phrase or sentence during conversion voice reproduction.
      SOLUTION: Conversation voice data reproduced by a voice reproducing mechanism and a voice reproducing circuit 11 are written to a temporary storage circuit 17 and always monitored by a reproduced voice signal level change detecting circuit 14, when change from a voiceless level to a voiced level is detected, an elapsed time counter 15 is reset and at the same time it starts counting. When a repeat reproduction button is depressed, the count value of the elapsed time counter 15 is converted by an elapsed time counter/address converting circuit 16 into an address of the temporary storage circuit 17 and the address is used to read conversation voice data out of the temporary storage circuit 17, thereby the repeat reproduction of the read conversation voice data is performed.
      COPYRIGHT: (C)2005,JPO&NCIPI
    • 要解决的问题:在转换语音再现期间实现仅最后一个会话短语或句子的重复再现。 解决方案:由语音再现机构和语音再现电路11再现的对话语音数据被写入临时存储电路17,并且由再现的语音信号电平变化检测电路14监视,当从无声级别改变为 检测到浊音电平,经过时间计数器15被复位,同时它开始计数。 当按下重复再现按钮时,经过时间计数器15的计数值由经过时间计数器/地址转换电路16转换成临时存储电路17的地址,并且该地址用于将对话语音数据从 执行临时存储电路17,从而进行读取会话语音数据的重复再现。 版权所有(C)2005,JPO&NCIPI
    • 7. 发明授权
    • Magnetoresistive head and a manufacturing method thereof
    • 磁阻头及其制造方法
    • US07859799B2
    • 2010-12-28
    • US11706152
    • 2007-02-13
    • Katsuro WatanabeTaku ShintaniKazuhiro UedaMasahiro Osugi
    • Katsuro WatanabeTaku ShintaniKazuhiro UedaMasahiro Osugi
    • G11B5/127
    • G11B5/3903G11B5/3163G11B5/398
    • Embodiments in accordance with the present invention reduce the influence of etching damage at junction edge of a magnetoresistive film in the sensor height direction, lower the deterioration of dielectric breakdown voltage between an upper magnetic shield layer and a lower magnetic shield layer and instability of reproducing property resulting from shield process, and maintain electrostatic capacity to a small value in a CPP magnetoresistive head. In an embodiment of a magnetoresistive head of the present invention, length in the sensor height direction of bottom surface of a pinning layer is longer than the length in the sensor height direction of bottom surface of a first ferromagnetic layer. The angle formed by an edge in the sensor height direction of the pinning layer to the surface extended from a bottom surface of a magnetoresistive film is smaller than the angle formed by an edge in the sensor height direction of a second ferromagnetic layer to the surface extended from a bottom surface of the magnetoresistive film. Height of top surface of a sensor height direction refill film is equal to or higher than the top surface of the magnetoresistive film.
    • 根据本发明的实施例减小了在传感器高度方向上的磁阻膜的接合边缘处的蚀刻损伤的影响,降低了上磁屏蔽层和下磁屏蔽层之间的介电击穿电压的劣化以及再现性能的不稳定性 由屏蔽过程产生,并且在CPP磁阻头中将静电容量维持在较小的值。 在本发明的磁阻头的一个实施例中,钉扎层的底表面的传感器高度方向上的长度比第一铁磁层的底表面的传感器高度方向上的长度长。 由钉扎层的传感器高度方向的边缘到从磁阻膜的底面延伸的表面形成的角度小于由第二铁磁层的传感器高度方向上的边缘延伸到表面延伸的角度 从磁阻膜的底表面。 传感器高度方向充填膜的顶表面的高度等于或高于磁阻膜的顶表面。
    • 8. 发明授权
    • Inspection method for thin film stack
    • 薄膜叠层检测方法
    • US07724872B2
    • 2010-05-25
    • US12071021
    • 2008-02-14
    • Kazuhiro Ueda
    • Kazuhiro Ueda
    • G01N23/201
    • G01B15/02
    • An X-ray reflectivity measuring method is provided to measure and inspect, with higher accuracy, film thickness of a thin film stack as a sample where a thick film is provided on the thin film stack. This X-ray reflectivity measuring method can measure X-ray reflectivity of the thin film stack embedded within a thick film by applying the X-ray focused to ⅓ or less the thickness of a thick film on the thin film stack to an end surface of the thick film, transmitting the X-ray through the thick film, thereafter applying the X-ray to the thin film stack, transmitting again the reflected X-ray to the thick film, and then extracting the reflection X-ray from the end surface in the opposite side of the incident surface and also can inspect film thickness of the thin film stack embedded in the thick film with the Fourier transformation method and the minimum square analysis method with the theoretical curve.
    • 提供了一种X射线反射率测量方法,以较高精度测量和检查薄膜叠层的膜厚,作为在薄膜叠层上设置厚膜的样品。 该X射线反射率测量方法可以通过将X射线聚焦到薄膜叠层上的厚度的1/3以下,测量薄膜堆叠中的薄膜堆叠的X射线反射率, 厚膜,通过厚膜透射X射线,然后将X射线施加到薄膜叠层,再次将反射的X射线透射到厚膜,然后从端面提取反射X射线 在入射面的相反侧,还可以用傅里叶变换法和最小二乘法分析方法,以理论曲线检测薄膜堆叠在薄膜中的膜厚。