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    • 3. 发明授权
    • Galvannealed steel sheet and manufacturing method
    • 热镀锌钢板及其制造方法
    • US06368728B1
    • 2002-04-09
    • US09437671
    • 1999-11-10
    • Yoichi TobiyamaChiaki Kato
    • Yoichi TobiyamaChiaki Kato
    • B32B1501
    • C23C2/28Y10T428/12799Y10T428/12993
    • Galvannealed steel sheet and method, made by applying hot-dip galvanizing to a steel sheet, heating at a heating rate of at least about 10° C./second to a maximum sheet temperature within a range of from about 470 to 550° C., and applying an alloying treatment; the Al content XAl% in the hot-dip galvannealing layer and the coating weight W g/m2 satisfy the following equation (1); thereby producing a Zn—Fe galvannealing layer having an iron content of from about 7 to 12%; the galvannealed steel sheet has intensities of &zgr;-phase, &dgr;1-phase and &Ggr;-phase that satisfy the following equations (4) and (5) as observed through X-ray diffraction with the galvannealing layer peeled off the galvannealed steel sheet at the galvannealing/steel sheet interface, and the galvannealed steel sheet having excellent press workability, having a whiteness and a glossiness within prescribed ranges: 5≦W×(XAl−0.12)≦15  (1) I(&zgr;:1.26)/I(&dgr;1:2.13)≦0.02  (4) I(&Ggr;:2.59)/I(&dgr;1:2.13)≦0.1  (5).
    • 通过对钢板进行热浸镀锌而制成的热浸镀锌钢板和方法,以至少约10℃/秒的加热速度加热到最大板温度在约470〜550℃的范围内。 ,并进行合金化处理; 热浸镀锌层中的Al含量XAl%和涂布重量W g / m2满足下式(1)。 从而制造铁含量为约7-12%的Zn-Fe合金化合金层; 合金化热镀锌钢板具有如下的等式(4)和(5)的强度:z相,δ1相和Ggr相,如通过X射线衍射所观察到的,合金化退火层从合金化热镀锌钢板上剥离 合金化退火/钢板界面以及具有优异的压制加工性的合金化热浸镀锌钢板,其白度和光泽度在规定范围内:
    • 7. 发明授权
    • Surface-treated steel sheet having improved weldability and plating
properties, and method for producing the same
    • 具有改进的可焊性和电镀性能的表面处理钢板及其制造方法
    • US5326648A
    • 1994-07-05
    • US658084
    • 1991-02-20
    • Chiaki KatoYasuji UesugiNobuyuki MoritoAkira YasudaKouichi YasudaHajime Kimura
    • Chiaki KatoYasuji UesugiNobuyuki MoritoAkira YasudaKouichi YasudaHajime Kimura
    • C23C2/06C23C2/02C25D5/10C25D5/26C25D5/50B32B5/14B32B15/18
    • C25D5/50C23C2/02C25D5/10Y10S205/917Y10T428/12458Y10T428/12799
    • A zinc or zinc-alloy plated steel sheet having an improved weldability and plating properties, as well as a method for making the same is provided. Even when the substrate steel sheet is the one which is difficult to deposit a zinc or zinc-alloy layer by conventional methods, such as an extra low carbon steel sheet, the present invention enable a reliable production of a galvanized steel sheet suffering from no plating failure or insufficient adhesion as well as a reliable production of a galvannealed steel sheet suffering from no plating failure or streaking of the alloyed layer.The zinc or zinc-alloy plated steel sheet having improved weldability comprises an extra low carbon steel sheet, an iron-carbon plated layer or a carbon-rich layer generated by diffusion of the iron-carbon plated layer on at least one major surface of the extra low carbon steel sheet, and a zinc or zinc-alloy plated layer on the iron-carbon plated layer or the carbon-rich layer.The zinc or zinc-alloy plated steel sheet having improved weldability and/or plating properties is produced by depositing on the steel sheet an iron-carbon plated layer having a carbon content of from 0.01% by weight to 10% by weight to a coating weight of from 0 01 g/m.sup.2 to 10 g/m.sup.2, optionally annealing the iron-carbon plated steel sheet, and depositing a zinc or zinc-alloy plated layer, preferably by galvanizing or galvannealing, on the annealed steel sheet.
    • 提供具有改进的焊接性和电镀性能的锌或锌合金镀覆钢板及其制造方法。 即使基板钢板是通过常规方法难以沉积锌或锌合金层的钢板,例如超低碳钢板,本发明能够可靠地生产没有电镀的镀锌钢板 失效或不充分的粘合性,以及可靠地生产没有电镀失效或合金化层的条纹的合金化热镀锌钢板。 具有改善的焊接性的锌或锌合金镀覆钢板包括通过铁碳镀层在至少一个主表面上扩散而产生的超低碳钢板,铁碳镀层或富碳层 铁碳镀层或富碳层上的锌或锌合金镀层。 通过在碳钢板上沉积碳含量为0.01重量%〜10重量%的铁碳镀层,涂布量为1重量%以上,制成具有改善的焊接性和/或电镀性能的锌或锌合金镀覆钢板 为0.01g / m 2至10g / m 2,可选择地对含铁碳素钢板进行退火,并且优选通过镀锌或合金化退火将锌或锌合金镀层沉积在退火钢板上。
    • 8. 发明授权
    • Surface-treated steel sheet having improved weldability and plating
properties, and method for producing the same
    • 具有改进的可焊性和电镀性能的表面处理钢板及其制造方法
    • US5421969A
    • 1995-06-06
    • US219136
    • 1994-03-29
    • Chiaki KatoYasuji UesugiNobuyuki MoritoAkira YasudaKouichi YasudaHajime Kimura
    • Chiaki KatoYasuji UesugiNobuyuki MoritoAkira YasudaKouichi YasudaHajime Kimura
    • C23C2/06C23C2/02C25D5/10C25D5/26C25D5/50C23C14/02C25D9/02
    • C25D5/50C23C2/02C25D5/10Y10S205/917Y10T428/12458Y10T428/12799
    • A zinc or zinc-alloy plated steel sheet having an improved weldability and plating properties, as well as a method for making the same is provided. Even when the substrate steel sheet is the one which is difficult to deposit a zinc or zinc-alloy layer by conventional methods, such as an extra low carbon steel sheet, the present invention enables a reliable production of a galvanized steel sheet suffering from no plating failure of insufficient adhesion as well as a reliable production of a galvanized steel sheet suffering from no plating failure or streaking of the alloyed layer. The zinc or zinc-alloy plated steel sheet having improved weldability comprises an extra low carbon steel sheet, an iron-carbon plated layer or a carbon-rich layer generated by diffusion of the iron-carbon plated layer on at least one major surface of the extra low carbon steel sheet, and a zinc or zinc-alloy plated layer on the iron-carbon plated layer or the carbon-rich layer. The zinc or zinc-alloy plated steel sheet having improved weldability and/or plating properties is produced by depositing on the steel sheet an iron-carbon plated layer having a carbon content of from 0.01% by weight to 10% by weight to a coating weight of from 0.01 g/m.sup.2 to 10 g/m.sup.2, optionally annealing the iron-carbon plated steel sheet, and depositing a zinc or zinc-alloy plated layer, preferably by galvanizing or galvannealing, on the annealed steel sheet.
    • 提供具有改进的焊接性和电镀性能的锌或锌合金镀覆钢板及其制造方法。 即使基板钢板是通过常规方法难以沉积锌或锌合金层的钢板,例如超低碳钢板,本发明能够可靠地生产没有电镀的镀锌钢板 无法实现不良的附着力,可靠地生产没有电镀不良或合金化层的条纹的镀锌钢板。 具有改善的焊接性的锌或锌合金镀覆钢板包括通过铁碳镀层在至少一个主表面上扩散而产生的超低碳钢板,铁碳镀层或富碳层 铁碳镀层或富碳层上的锌或锌合金镀层。 通过在碳钢板上沉积碳含量为0.01重量%〜10重量%的铁碳镀层,涂布量为1重量%以上,制成具有改善的焊接性和/或电镀性能的锌或锌合金镀覆钢板 为0.01g / m 2至10g / m 2,可选择地对该铁碳钢进行退火,并且优选通过镀锌或合金化退火将锌或锌合金镀层沉积在退火钢板上。
    • 10. 发明授权
    • Component-based application constructing method
    • 基于组件的应用程序构建方法
    • US07703072B2
    • 2010-04-20
    • US11070499
    • 2005-03-03
    • Tomohiro NakamuraHiroaki FujiiToshihiro EguchiChiaki KatoKazuya HisakiMasaru Takeuchi
    • Tomohiro NakamuraHiroaki FujiiToshihiro EguchiChiaki KatoKazuya HisakiMasaru Takeuchi
    • G06F9/44G06F17/00G06N5/02
    • G06F11/008G06F11/0727G06F11/0793
    • Reliability is evaluated in constructing a component based-on application and an application for realizing reliability required can be constructed efficiently. A run-time history such as an occurrence frequency of errors, a recovery time required at error occurrence, and a processing capacity at preventive maintenance is added per software component to a run-time history list having been recoded per execution environment such as an application ID, combined component IDs, and executed hardware ID. From these pieces of information, an interval of performing preventive maintenance recommended per software component during system construction is calculated. By comparing reliability per software component and reliability required for the system, advisability is determined and conformance is evaluated. An execution schedule for preventive maintenance and a processing capability are calculated about the entire component-based application created by combining the software components. By calculating the reliability and the processing capability in the entire system to be compared to those required for the entire system, advisability is determined and conformance is evaluated.
    • 在构建基于组件的应用程序中评估可靠性,并且可以有效地构建用于实现所需可靠性的应用。 每个软件组件将每个执行环境例如应用程序重新编码的运行时历史列表添加诸如错误发生频率,错误发生时所需的恢复时间和预防性维护处理能力的运行时历史 ID,组合组件ID和执行的硬件ID。 从这些信息中,计算在系统构造期间对每个软件组件推荐的间隔执行预防性维护。 通过比较每个软件组件的可靠性和系统所需的可靠性,确定可靠性并评估一致性。 计算关于通过组合软件组件创建的整个基于组件的应用程序的预防性维护执行计划和处理能力。 通过计算整个系统的可靠性和处理能力与整个系统所需的可靠性和处理能力进行比较,确定可靠性并评估一致性。