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    • 1. 发明专利
    • Hydrogen generating medium and manufacturing method for the same
    • 氢生成中间体及其制造方法
    • JP2006290660A
    • 2006-10-26
    • JP2005111892
    • 2005-04-08
    • Jfe Chemical CorpJfeケミカル株式会社Uchiya Thermostat Kkウチヤ・サーモスタット株式会社
    • KIKUCHI TAKAHIROGOTO SATOSHIKIJIMA SHINICHINAKAMURA KIYOZUMIIIZUKA KAZUYUKI
    • C01B3/08H01M8/06
    • Y02E60/36
    • PROBLEM TO BE SOLVED: To provide a hydrogen generating medium, which remarkably improves the generation rate of hydrogen per unit volume by its high reactivity with water and its high bulk density so that compact storage of hydrogen is achieved and a large amount of hydrogen is generated in a short time, and to provide a manufacturing method for the same medium.
      SOLUTION: The hydrogen generating medium contains iron particles, and the iron particles have an indefinite particle shape, a spongiform structure having pores (20) connecting to the outside, in the inside of the iron particles, and a specific surface area which is 10 times or more of the external specific surface area calculated from the average particle size D50 (50 vol% particle size) as measured by a laser diffraction-type particle size distribution measuring instrument. The iron particles can be obtained by producing an iron oxide by a fluidized roasting method, crushing it to form iron oxide particles having an indefinite particle shape, and bringing the particles into contact with a reducing gas at 900°C or lower.
      COPYRIGHT: (C)2007,JPO&INPIT
    • 要解决的问题:提供一种氢发生介质,其通过与水的高反应性及其高堆积密度显着提高每单位体积的氢的产生速率,从而实现了氢的紧密储存和大量的 在短时间内产生氢,并提供相同介质的制造方法。 解决方案:氢产生介质含有铁颗粒,铁颗粒具有无限粒子形状,在铁颗粒内部具有连接到外部的孔(20)的海绵状结构和比表面积, 是由激光衍射型粒度分布测定仪测定的平均粒径D50(50体积%粒径)计算出的外部比表面积的10倍以上。 铁粒子可以通过流化焙烧法制造氧化铁,粉碎,形成不定形粒子状的氧化铁粒子,使其与900℃以下的还原气体接触而得到。 版权所有(C)2007,JPO&INPIT
    • 2. 发明专利
    • Hydrogen generating medium and manufacturing method for the same
    • 氢生成中间体及其制造方法
    • JP2006143565A
    • 2006-06-08
    • JP2004339829
    • 2004-11-25
    • Jfe Chemical CorpJfeケミカル株式会社Uchiya Thermostat Kkウチヤ・サーモスタット株式会社
    • NAKAMURA KIYOZUMIIIZUKA KAZUYUKIKIKUCHI TAKAHIROGOTO SATOSHIKIJIMA SHINICHI
    • C01B3/10H01M8/06
    • Y02E60/36
    • PROBLEM TO BE SOLVED: To provide a hydrogen generating medium, which remarkably improves the generation rate of hydrogen per unit volume by its high reactivity with water and its high bulk density so that compact storage of hydrogen is achieved, and to provide a manufacturing method for the same medium.
      SOLUTION: The hydrogen generating medium contains iron particles, and the particle shape of the iron particles is approximately spherical. The inside of the approximately spherical particle has a spongiform structure with pores connecting to the outside, and the specific surface area of the particle is ≥100 times of the external specific surface area calculated from the average particle diameter of the particles. Next, the manufacturing method for the hydrogen generating medium includes: a step, in which iron oxide particles of an approximately spherical shape are obtained; a step, in which the iron oxide particles are classified so that the average particle diameter of the particles becomes ≥40 μm; and a step, in which the classified iron oxide particles are, at ≤900°C, brought into contact with a reducing gas and reduced so that the hydrogen generating medium is obtained.
      COPYRIGHT: (C)2006,JPO&NCIPI
    • 要解决的问题:提供一种通过与水的高反应性及其高体积密度来显着提高每单位体积氢的产生速率的氢生成介质,从而实现氢的紧密储存,并提供一种 相同介质的制造方法。 解决方案:产氢介质含有铁颗粒,铁颗粒的颗粒形状近似为球形。 大致球形的颗粒的内部具有孔隙连接到外部的海绵状结构,并且颗粒的比表面积是由颗粒的平均粒径计算的外部比表面积的100倍以上。 接下来,氢生成介质的制造方法包括:获得大致球状的氧化铁粒子的工序; 将氧化铁颗粒分级使得颗粒的平均粒径变为≥40μm的步骤; 并且其中分级的氧化铁颗粒在≤900℃下与还原气体接触并降低,从而获得产氢介质。 版权所有(C)2006,JPO&NCIPI
    • 3. 发明专利
    • Mn−Zn−Ni系フェライトおよびその製法方法
    • 基于Mn-Zn-Ni的铁素体及其制造方法
    • JP2015036364A
    • 2015-02-23
    • JP2013169215
    • 2013-08-16
    • Jfeケミカル株式会社Jfe Chemical Corp
    • GOTO SATOSHIIKEDA KOJI
    • C04B35/38C04B35/26H01F1/34
    • 【課題】例えば150〜170℃の高温度領域に鉄損の極小値が存在しかつその値が小さく、さらに150℃以上の高温域において飽和磁束密度が高いMn-Zn-Ni系フェライト材料を提供する。【解決手段】Fe2O3:54.0〜55.0mol%、ZnO:5.0〜10.0mol%、NiO:0.1〜0.2mol%および残部MnOを基本成分とし、前記基本成分に対し、SiO2:50〜500massppm、CaO:200〜2000massppm、Nb2O5:50〜500massppmおよびBeO:10〜100massppmの副成分を含有し、残部が不可避的不純物からなるMn-Zn-Ni系フェライトであって、前記不可避的不純物中、炭素の含有量を50massppm以下に抑制する。【選択図】なし
    • 要解决的问题:提供一种Mn-Zn-Ni基铁氧体材料,其例如具有在150至170℃的高温范围内存在的铁损的最小值,并且还具有高的饱和磁通密度 在150℃以上的高温范围内。提供一种Mn-Zn-Ni类铁氧体,其含有54.0〜55.0mol%的FeO,5.0〜10.0mol%的ZnO,0.1〜0.2mol%的ZnO, NiO和余量MnO作为基本成分,相对于基本成分和余量的不可避免的杂质,作为副成分的AlO 50〜500质量ppm,CaO:200〜2000质量ppm,Nb:50〜500质量ppm,NbO:10〜100质量ppm·BeO: 将不可避免的杂质中的碳含量抑制在50质量ppm以下。
    • 7. 发明专利
    • Electromagnetic wave absorption heating element and cooking appliance for microwave oven
    • 用于微波炉的电磁波吸收加热元件和烹饪器具
    • JP2013239459A
    • 2013-11-28
    • JP2013160593
    • 2013-08-01
    • Jfe Chemical CorpJfeケミカル株式会社
    • TAKAHASHI MIKIOKIJIMA SHINICHIGOTO SATOSHI
    • H05B6/74A47J27/00
    • PROBLEM TO BE SOLVED: To provide an electromagnetic wave absorption heating element in which the rate of temperature rise is enhanced significantly when compared with a conventional dielectric material or a magnetic material, and temperature rise stops in a range of 200-300°C suitable for heating of food, and to provide a cooking appliance using the same.SOLUTION: As a heating element for absorbing electromagnetic waves, Y type hexagonal ferrite is used. The Y type hexagonal ferrite has a composition represented by a formula:(BaSr)MFeO(in the formula, M is Mg alone, or Mg and one kind or more selected from Ni, Co, Cu and Zn, x:1.8-2.2, y:1.8-2.2, z:11.8-12.2, w:21.8-22.2, n:0.1-0.25).
    • 要解决的问题:提供一种电磁波吸收加热元件,其中与常规电介质材料或磁性材料相比,其升温速率显着提高,并且温度上升停止在200-300℃的范围内,适合于 加热食物,并提供使用其的烹饪器具。解决方案:作为吸收电磁波的加热元件,使用Y型六角铁氧体。 Y型六方晶系铁氧体具有由式(BaSr)MFeO表示的组成(式中,M为单独的Mg或Mg,选自Ni,Co,Cu和Zn中的一种以上,x:1.8〜2.2, y:1.8-2.2,z:11.8-12.2,w:21.8-22.2,n:0.1-0.25)。