公开(公告)号：US6017497A

公开(公告)日：2000-01-25

申请号：US918571

申请日：1997-08-22

申请人： Katsushige Matsuzaki ,  Tatsunori Sunagawa ,  Kenji Kawahito ,  Junji Omori ,  Yoshitaka Yamana ,  Shoichi Osada ,  Kiyoshi Aritome ,  Yoshimasa Ikeda ,  Izumi Matsushita ,  Wataru Ohashi ,  Kaoru Ito ,  Fumihiko Hasegawa ,  Shinya Nariki ,  Michimasa Sasaki ,  Noritane Tsugane ,  Toshiaki Kurihara

发明人： Katsushige Matsuzaki ,  Tatsunori Sunagawa ,  Kenji Kawahito ,  Junji Omori ,  Yoshitaka Yamana ,  Shoichi Osada ,  Kiyoshi Aritome ,  Yoshimasa Ikeda ,  Izumi Matsushita ,  Wataru Ohashi ,  Kaoru Ito ,  Fumihiko Hasegawa ,  Shinya Nariki ,  Michimasa Sasaki ,  Noritane Tsugane ,  Toshiaki Kurihara

IPC分类号： C01G49/00 ,  C04B35/26 ,  C04B35/626 ,  H01F1/34 ,  B01J19/26 ,  F27B1/00

CPC分类号： C04B35/2658 ,  C01G49/009 ,  C04B35/26 ,  C04B35/626 ,  H01F1/344 ,  C01P2004/61 ,  C01P2006/12

摘要： An atomization roasting furnace for producing ferrite raw material powder includes an elongated roasting furnace body with a center burner located at the top end thereof. At least three liquid spray nozzles are located in an expansion slope portion below the center burner circumferentially with respect to the center burner. A quencher, located below the elongated roasting furnace body, has a top end connected to a bottom end of the elongated roasting furnace body. Quencher nozzles are located adjacent the top end of the quencher.

摘要翻译： 一种用于生产铁氧体原料粉末的雾化焙烧炉包括具有位于其顶端的中心燃烧器的细长焙烧炉体。 至少三个液体喷嘴位于相对于中心燃烧器周向的中心燃烧器下方的膨胀斜面部分中。 位于细长焙烧炉体下方的淬火器具有连接到细长焙烧炉体的底端的顶端。 猝灭剂喷嘴位于猝灭剂顶端附近。

公开(公告)号：US4596615A

公开(公告)日：1986-06-24

申请号：US703384

申请日：1985-02-20

申请人： Katsushige Matsuzaki ,  Masahiro Doki ,  Masato Sanazawa ,  Masanao Yamamoto ,  Hiroki Miyawaki

发明人： Katsushige Matsuzaki ,  Masahiro Doki ,  Masato Sanazawa ,  Masanao Yamamoto ,  Hiroki Miyawaki

IPC分类号： B21B45/02 ,  B21B1/26 ,  B21B1/38 ,  B21B15/00 ,  B21B37/44 ,  B21B37/76 ,  B21B45/00 ,  C21D1/667 ,  C21D9/52 ,  C21D11/00 ,  C21D1/18

CPC分类号： C21D1/667 ,  B21B37/44 ,  C21D11/005 ,  B21B1/26 ,  B21B2001/386 ,  B21B2015/0071 ,  B21B37/76 ,  B21B45/004 ,  B21B45/0218

摘要： Hot steel plate as hot-rolled is passed forward longitudinally through pairs of top and bottom rollers disposed in the direction of the plate travel. The steel plate is cooled with water supplied to its top and bottom surfaces from the nozzles on a plurality of cooling units disposed in the same longitudinal direction. Each cooling unit is disposed between adjoining pairs of the top and bottom rollers. Before cooling is started, the temperature distribution in the steel plate is determined and the desired mean cooling rate is set. The distance from the plate edge over which the supply of the cooling water at least to the bottom side of the plate is to be cut off is determined for each cooling unit on the basis of the determined temperature distribution and preset mean cooling rate. By so doing, the temperature of the inner edge portion of the steel plate is kept above the temperature of the middle portion, thereby allowing the Ar.sub.3 transformation in the inner edge portion to occur simultaneously with or after the Ar.sub.3 transformation in the middle portion. The cooling water directly supplied to the edge portion of the steel plate is cut off over the distance thus determined.

摘要翻译： 热轧的热钢板沿着板行进方向设置的成对的上下辊纵向前进。 钢板由设置在同一长度方向上的多个冷却单元上的喷嘴的顶面和底面供给水冷却。 每个冷却单元设置在邻接的顶部和底部辊对之间。 在开始冷却之前，确定钢板中的温度分布并设定所需的平均冷却速度。 基于所确定的温度分布和预设的平均冷却速率，确定对于每个冷却单元至少要对板的底侧供应冷却水的板边缘的距离。 通过这样做，钢板的内边缘部分的温度保持在中间部分的温度之上，从而允许内边缘部分中的Ar 3变形与中间部分中的Ar 3变换同时发生。 直接供给到钢板的边缘部分的冷却水在如此确定的距离处被切断。

公开(公告)号：US5688430A

公开(公告)日：1997-11-18

申请号：US507519

申请日：1995-11-16

申请人： Katsushige Matsuzaki ,  Tatsunori Sunagawa ,  Kenji Kawahito ,  Junji Omori ,  Yoshitaka Yamana ,  Shoichi Osada ,  Kiyoshi Aritome ,  Yoshimasa Ikeda ,  Izumi Matsushita ,  Wataru Ohashi ,  Kaoru Ito ,  Fumihiko Hasegawa ,  Shinya Nariki ,  Michimasa Sasaki ,  Noritane Tsugane ,  Toshiaki Kurihara

发明人： Katsushige Matsuzaki ,  Tatsunori Sunagawa ,  Kenji Kawahito ,  Junji Omori ,  Yoshitaka Yamana ,  Shoichi Osada ,  Kiyoshi Aritome ,  Yoshimasa Ikeda ,  Izumi Matsushita ,  Wataru Ohashi ,  Kaoru Ito ,  Fumihiko Hasegawa ,  Shinya Nariki ,  Michimasa Sasaki ,  Noritane Tsugane ,  Toshiaki Kurihara

IPC分类号： C01G49/00 ,  C04B35/26 ,  C04B35/626 ,  H01F1/34 ,  C04B35/36 ,  C04B35/38 ,  C04B35/40 ,  C04B35/46

CPC分类号： C04B35/2658 ,  C01G49/009 ,  C04B35/26 ,  C04B35/626 ,  H01F1/344 ,  C01P2004/61 ,  C01P2006/12

摘要： This invention provides an atomization roasting method which can easily obtain a soft ferrite sintered body, for example, a sintered body having a crystal particle size of not greater than 2 .mu.m, by using as a raw material an ultra-fine powder having a mean particle size of not greater than 0.1 .mu.m obtained by atomization roasting and which can obtain a soft ferrite raw material powder subjected to an oxidation reaction, having an extremely small residual chlorine content, and having and extremely small deviation of high vapor pressure components such as zinc between the atomized raw material solution and the oxide as the product and which can economically produce a soft ferrite core having an excellent power loss characteristic in a high frequency range, particularly in a MHz range, and is extremely effective for reducing the size of a high frequency transformer. In the production method of the soft ferrite raw material powder, the deviation of the recovered powder becomes extremely small and residual hydrogen chloride and chlorides can be reduced. Therefore, loads to the component adjustment step after roasting and to the Cl removing step can be reduced and process steps can be eliminated. Accordingly, the present invention can drastically reduce the cost of production and can improve quality.

摘要翻译： PCT No.PCT / JP93 / 00222 Sec。 371日期：1995年11月16日 102（e）日期1995年11月16日PCT提交1993年2月23日PCT公布。 WO94 / 19283 PCT出版物 日本1994年1月9日本发明提供一种雾化焙烧方法，其可以容易地获得软质铁氧体烧结体，例如具有不大于2μm的结晶粒径的烧结体， 通过雾化焙烧获得的平均粒径不大于0.1μm的细粉末，其可以获得具有极小残留氯含量的氧化反应的软质铁氧体原料粉末，并且具有极小的偏差 雾化原料溶液和氧化物之间的蒸汽压成分如锌，作为产品，可以经济地生产出在高频范围内，特别是在MHz范围内具有优异的功率损耗特性的软铁氧体磁芯，对于 降低高频变压器的尺寸。 在软铁氧体原料粉末的制造方法中，回收粉末的偏差变得非常小，残留的氯化氢和氯化物可以减少。 因此，可以减少焙烧后的组分调整步骤和Cl去除步骤的负载，并且可以消除处理步骤。 因此，本发明能够大幅度降低生产成本，提高质量。