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    • 2. 发明专利
    • Facility monitoring device
    • 设备监控设备
    • JP2013036742A
    • 2013-02-21
    • JP2011170134
    • 2011-08-03
    • Kobe Steel Ltd株式会社神戸製鋼所
    • MANABE CHITAKAMARUYAMA MASAKATSUKURIKAWA YU
    • G01B15/00
    • PROBLEM TO BE SOLVED: To provide a facility monitoring device capable of simultaneously performing measurement using a measuring sensor and visual measurement (monitoring) for a monitoring target in a predetermined facility.SOLUTION: The facility monitoring device for observing the monitoring target in a facility E includes: a separator 22 arranged on a common route L of visible light and a microwave to be used for observing the monitoring target and capable of transmitting either one of the visible light and the microwave and reflecting the other to a direction different from the transmission direction; and a microwave detection part 24 arranged in the transmission direction or the reflection direction of the microwave by the separator 22 and capable of detecting a state of the monitoring target based on the microwave.
    • 要解决的问题:提供能够使用测量传感器同时进行测量的设备监视装置和在预定设施中的监视目标的视觉测量(监视)。 解决方案:用于观察设施E中的监视目标的设施监视装置包括:分离器22,布置在可见光的共同路径L和用于观察监视目标的微波中,并且能够发送 可见光和微波,并将另一个反射到与传输方向不同的方向; 以及微波检测部24,其通过分离器22布置在微波的传输方向或反射方向上,并且能够基于微波检测监视对象的状态。 版权所有(C)2013,JPO&INPIT
    • 3. 发明专利
    • Waveguide
    • 波导
    • JP2011142457A
    • 2011-07-21
    • JP2010001372
    • 2010-01-06
    • Kobe Steel Ltd株式会社神戸製鋼所
    • MARUYAMA MASAKATSUMANABE CHITAKA
    • H01P1/08H01P5/02
    • PROBLEM TO BE SOLVED: To solve the problem of deterioration in the propagation efficiency due to change in the propagation mode of a waveguide along the way. SOLUTION: In a waveguide 1 with a waveguide pathway 2 for guiding a high-frequency signal being partitioned by a first dielectric 6 and a second dielectric 4, having an outside diameter which is substantially the same as the inside diameter of the waveguide pathway and connected to the first dielectric provided in the waveguide pathway, the ratio of the diameter of the first dielectric to the effective wavelength of high-frequency signals in the first dielectric and the ratio of the diameter of the second dielectric to the effective wavelength of high-frequency signals in the second dielectric are set to be the same value. COPYRIGHT: (C)2011,JPO&INPIT
    • 要解决的问题:为了解决由于沿途的波导的传播模式的变化而导致的传播效率的劣化的问题。 解决方案:在具有用于引导被第一电介质6和第二电介质4分隔的高频信号的波导路径2的波导1中,其外径与波导的内径基本相同 并且连接到设置在波导路径中的第一电介质,第一电介质的直径与第一电介质中的高频信号的有效波长的比率以及第二电介质的直径与有效波长的比率 将第二电介质中的高频信号设定为相同的值。 版权所有(C)2011,JPO&INPIT
    • 4. 发明专利
    • Radio communication system
    • 无线电通信系统
    • JP2011109594A
    • 2011-06-02
    • JP2009265184
    • 2009-11-20
    • Kobe Steel Ltd株式会社神戸製鋼所
    • MARUYAMA MASAKATSUFUKUSHIMA TAKASHINISHIIKE NARISUKEMANABE CHITAKAGOTO YUICHIROIKEDA HIDEO
    • H04W40/22H04W4/04H04W40/26H04W40/38
    • PROBLEM TO BE SOLVED: To prevent communication efficiency from being reduced by a topology change and to avoid occurrence of time and efforts for setting information updating to a radio terminal in a radio communication system in which there are mixed the radio terminal disposed on a mobile 1 which moves within a predetermined range and operates to move a portion that may become an obstacle for radio communication in a higher frequency than a frequency of moving at a position of a moving destination, and a plurality of radio relay stations disposed at a plurality of positions along a moving route of the mobile 1. SOLUTION: In a radio communication system, a radio terminal 10 on a mobile 1 performs radio communication while performing roaming using a radio relay station 20 as an access point, and the radio relay station 20 performs radio communication as an access point and relays and transmits communication data through radio communication due to dynamic routing with another radio relay station 20. COPYRIGHT: (C)2011,JPO&INPIT
    • 要解决的问题:为了防止通过拓扑变化减少通信效率,并且避免在将无线电终端混合在无线电终端中的无线电通信系统中的无线电终端设置信息更新的时间和努力的发生 移动台1,其在预定范围内移动并且操作以使移动可能成为用于无线电通信的障碍物的部分以比在移动目的地的位置移动的频率更高的频率移动;以及多个无线电中继站 在移动台1的移动路径上的多个位置。解决方案:在无线通信系统中,移动台1上的无线终端10在使用无线中继站20作为接入点进行漫游的同时进行无线通信, 无线电中继站20执行无线电通信作为接入点,并通过无线电通信中继和发送通信数据,这是由于具有另一辐射的动态路由 o中继站20.版权所有(C)2011,JPO&INPIT
    • 6. 发明专利
    • Control device for conveyance tool
    • 用于输送工具的控制装置
    • JP2008308238A
    • 2008-12-25
    • JP2007154637
    • 2007-06-12
    • Kobe Steel Ltd株式会社神戸製鋼所
    • MANABE CHITAKAIKEDA HIDEOMARUYAMA MASAKATSUKEGASA MITSUYOSHIMATSUDA KOICHI
    • B66C15/06B66C13/16
    • PROBLEM TO BE SOLVED: To correctly control the use of an object holder (a handing tool) to be used for conveyance by a hanging type elevating/lowering device while suppressing the labor of a worker and the cost of a control device. SOLUTION: The hanging status including the status that a hanging tool 10 is hooked by at least an elevating/lowering unit 20 is automatically detected. Identification information of an object holder and information on its accumulated use record is read out from an RF tag 11 provided on the hanging tool 10 according to the detection. The status on the use limit of the hanging tool 10 is discriminated based on the read information, and the result of discrimination is notified. Further, information on the accumulated use record in the RF tag 11 is updated based on the information on the accumulated use record and the result of detection of the hanging status of the hanging tool 10. COPYRIGHT: (C)2009,JPO&INPIT
    • 要解决的问题:为了正确地控制用于通过悬挂式升降装置进行输送的物体保持器(处理工具)的使用,同时抑制了工人的劳动力和控制装置的成本。

      解决方案:包括悬挂工具10至少由升降单元20挂钩的状态的悬挂状态被自动检测。 根据该检测,从设置在悬挂工具10上的RF标签11读出对象持有人的识别信息及其累积使用记录的信息。 基于所读取的信息来判别悬挂工具10的使用极限状态,并通知鉴别结果。 此外,基于关于累积使用记录的信息和悬挂工具10的悬挂状态的检测结果,更新关于RF标签11中的累积使用记录的信息。(C)2009,JPO&INPIT

    • 7. 发明专利
    • 耐火物厚さ測定方法、耐火物厚さ測定装置及び炉
    • 耐火材料厚度测量方法,厚度测量装置和炉
    • JP2015004661A
    • 2015-01-08
    • JP2013255048
    • 2013-12-10
    • 株式会社神戸製鋼所Kobe Steel Ltd
    • MANABE CHITAKASAKOTA HISAKAZUASAI YU
    • G01B17/02
    • 【課題】炉の稼動を停止することなく、高精度の計測器を使用しなくても、従来よりも正確に耐火物の厚さを測定することができる耐火物厚さ測定方法を提供する。【解決手段】炉壁を構成する耐火物10aの厚さの測定方法であって、耐火物10aよりも入射する波動に対する伝搬減衰率が小さく、かつ炉壁に平行な断面の形状が炉壁の厚さ方向に応じて変化する箇所C1、C2、C3を有する伝搬物体10bが耐火物10a中に埋設された炉において、該炉の外部から伝搬物体10bに波動を入射する入射ステップと、伝搬物体10bから反射波を観測する観測ステップとを含む。【選択図】図2
    • 要解决的问题:即使在不使用高精度测量仪器的情况下,也能够不停止炉子的操作,提供能够比迄今为止更准确地测量耐火材料的厚度的耐火材料厚度测量方法。解决方案: 构成炉壁的耐火材料10a的厚度包括:允许波浪运动从炉外进入传播物体10b的入射步骤; 以及观察步骤,用于观察来自传播对象10b的反射波,其中传播对象10b具有比难熔物10a更小的入射波运动的传播对象10b,并且具有点C 1,C 2,C 3 其与炉壁平行的截面形状根据炉壁的厚度方向而变化,被埋入耐火材料10a中。
    • 9. 发明专利
    • Roughness measurement instrument
    • 粗糙度测量仪器
    • JP2014052340A
    • 2014-03-20
    • JP2012198466
    • 2012-09-10
    • Kobe Steel Ltd株式会社神戸製鋼所
    • MANABE CHITAKAASAI YU
    • G01B11/30
    • PROBLEM TO BE SOLVED: To provide a roughness measurement instrument which is capable of measuring roughness of a very rough surface constituted of large concave and convex portions in a short time with a simple configuration using an optical sensor.SOLUTION: The roughness measurement instrument measures surface roughness of a measurement object W in accordance with an output of an optical sensor 4 and includes a determination unit 8 which determines that the surface roughness of the measurement object has reached desired roughness when the output of the optical sensor 4 becomes lower than a prescribed threshold. In addition, the optical sensor 4 is mounted on moving means 7 movable along the surface of the measurement object W, and the determination unit 8 generates an intensity distribution of reflected light which is obtained by a movement distance of the optical sensor 4 and the output of the optical sensor 4 and, when the output of the optical sensor 4 becomes lower than the prescribed threshold in the generated intensity distribution of reflected light, determines that the surface roughness of the measurement object W has reached desired roughness.
    • 要解决的问题:提供一种粗糙度测量仪器,其能够以简单的结构使用光学传感器在短时间内测量由大的凹凸部构成的粗糙表面的粗糙度。粗糙度测量仪器测量表面 测量对象W的粗糙度根据光学传感器4的输出,并且包括确定单元8,当光学传感器4的输出变得低于规定阈值时,确定单元8确定测量对象的表面粗糙度已经达到期望的粗糙度 。 此外,光学传感器4安装在沿着测量对象W的表面可移动的移动装置7上,并且确定单元8产生通过光学传感器4的移动距离和输出获得的反射光的强度分布 并且当在所生成的反射光强度分布中光传感器4的输出变得低于规定阈值时,确定测量对象W的表面粗糙度已达到期望的粗糙度。
    • 10. 发明专利
    • Method for evaluating residual thickness of refractory
    • 评估残留残余厚度的方法
    • JP2012181164A
    • 2012-09-20
    • JP2011045922
    • 2011-03-03
    • Kobe Steel Ltd株式会社神戸製鋼所
    • MARUYAMA MASAKATSUMANABE CHITAKA
    • G01B7/06C21B7/24
    • Y02P10/212
    • PROBLEM TO BE SOLVED: To continuously measure the residual thickness of a refractory on a bottom of a blast furnace from the outside of the furnace.SOLUTION: A plurality of electrodes are buried in wall surfaces 2a and 2b of a refractory, and an electro-resistance Rmn of an electric circuit formed between a pair of arbitrary electrodes m and n is measured by a resistance meter 5. The obtained electro-resistance value Rmn is inputted to an arithmetic processing unit 6. When the refractory residual thicknesses are defined as Lm and Lc and a hot metal portion distance is defined as Lmn, from specific electro-resistances ρc, ρi of the known refractory (carbon brick) and a hot metal 3, a relational expression of ρi×Lmn+ρc×(Lm+Ln)=Rmn is created. Rmn is measured for matrix arithmetic operation, namely, all electrode combinations and by solving a simultaneous equation of the obtained relational expression, the refractory residual thickness Lm, Lc in the electrode buried part of a spot where the electric circuit is formed, is converted. Thus, the refractory remaining thickness Lm, Lc in each part of a blast furnace 1 under running can be measured continuously from the outside of the furnace, thereby stabilizing running.
    • 要解决的问题:从炉外连续测量高炉底部的耐火材料的残留厚度。 解决方案:将多个电极埋在耐火材料的壁表面2a和2b中,并且通过电阻计5测量形成在一对任意电极m和n之间的电路的电阻Rmn。 获得的电阻值Rmn被输入到算术处理单元6.当将耐火残留厚度定义为Lm和Lc,并且将热金属部分距离定义为Lmn时,根据已知耐火材料的特定电阻ρc,ρi 碳砖)和热金属3,产生了ρi×Lmn +ρc×(Lm + Ln)= Rmn的关系式。 测量矩阵算术运算的Rmn,即所有电极组合,并通过求解所获得的关系式的联立方程,形成电路的点的电极掩埋部分中的难熔残留厚度Lm,Lc被转换。 因此,可以从炉外连续地测量运行中的高炉1的各部分中的耐火残留厚度Lm,Lc,从而稳定运行。 版权所有(C)2012,JPO&INPIT