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    • 1. 发明申请
    • MICROSTRUCTURAL FEATURE AND MATERIAL PROPERTY MONITORING DEVICE FOR METALLIC MATERIAL
    • 用于金属材料的微结构特征和材料属性监测装置
    • US20100128281A1
    • 2010-05-27
    • US11994666
    • 2007-01-11
    • Mitsuhiko SanoKazuhiro Ohara
    • Mitsuhiko SanoKazuhiro Ohara
    • G01B9/02G01N21/84
    • G01N29/2418G01N29/265G01N2291/0289
    • A microstructural feature and material property monitoring device for a metallic material that can easily adjust relative position between an irradiation position of laser beams applied to the metallic material to propagate pulsed ultrasonic waves in the metallic material and detection position of a laser interferometer, and therefore can accurately monitor the microstructural feature and material property of the metallic material. The device relatively moves the irradiation position of the laser beams generated by a laser oscillator and the detection position of the laser interferometer. The irradiation position of the laser beams generated from a laser oscillator and the detection position of the laser interferometer are controlled to be aligned with a relative position according to the microstructural feature and material property of the metallic material based on the time from the transmission of the pulsed ultrasonic waves to the detection by the laser interferometer. After the alignment, the microstructural feature and material property of the metallic material is calculated based on the waveform of the pulsed ultrasonic waves generated as an electrical signal by the laser interferometer.
    • 一种用于金属材料的微结构特征和材料性质监测装置,其可以容易地调整施加到金属材料的激光束的照射位置之间的相对位置,以在金属材料中传播脉冲超声波和激光干涉仪的检测位置,因此可以 准确监测金属材料的微结构特征和材料性能。 该装置相对移动由激光振荡器产生的激光束的照射位置和激光干涉仪的检测位置。 从激光振荡器产生的激光束的照射位置和激光干涉仪的检测位置被控制为根据金属材料的显微结构特征和材料性质的相对位置,基于从 脉冲超声波由激光干涉仪进行检测。 在对准之后,基于由激光干涉仪作为电信号产生的脉冲超声波的波形来计算金属材料的微结构特征和材料特性。
    • 3. 发明授权
    • Property measurement system for metal material
    • 金属材料物性测量系统
    • US09470623B2
    • 2016-10-18
    • US14001893
    • 2011-02-28
    • Mitsuhiko Sano
    • Mitsuhiko Sano
    • G01B11/02G01N21/17G01N29/24G01N29/46
    • G01N21/1702G01N29/2418G01N29/46G01N2291/0234
    • A property measurement system for a metal material includes: a laser oscillator that emits a pulse laser beam; a lens array that has small lenses with a same shape, the small lenses being laid in a matrix on a plane perpendicular to an optical axis of the pulse laser beam, and arranged so that a part of a cross section of the pulse laser beam can be made incident onto each of small lenses; a condensing lens that overlaps and condenses emitted beams coming from the small lenses on a same region of a surface of a metal material as a measurement target; a laser interferometer that detects, as an electric signal, a pulse ultrasonic wave that is excited by the pulse laser beam condensed and propagates through an inside of the metal material; and a signal processing device that processes the electric signal.
    • 一种用于金属材料的性能测量系统包括:发射脉冲激光束的激光振荡器; 具有相同形状的小透镜的透镜阵列,所述小透镜在与所述脉冲激光束的光轴垂直的平面上以矩阵形式放置,并且布置成使得所述脉冲激光束的横截面的一部分可以 在每个小镜头上进行事件处理; 聚光透镜,其与来自小透镜的发射光束重叠并冷凝在与测量对象物相同的金属材料表面上; 激光干涉仪,其检测由所述脉冲激光束激发的脉冲超声波作为电信号,所述脉冲超声波被冷凝并传播通过所述金属材料的内部; 以及处理电信号的信号处理装置。
    • 4. 发明授权
    • Measuring apparatus and measuring method for metallic microstructures or material properties
    • 用于金属微观结构或材料特性的测量装置和测量方法
    • US09182375B2
    • 2015-11-10
    • US13818236
    • 2010-10-15
    • Mitsuhiko Sano
    • Mitsuhiko Sano
    • G01N29/00G01N29/24G01N21/17
    • G01N29/00G01N21/1702G01N29/2418G01N2291/0234G01N2291/0289
    • A pulse laser oscillator (11) outputs a first laser beam, a beam splitter splitting the first laser beam into split beams, optical paths (12, 13, 14, 15, 16) propagating light of split beams split, respectively, taking different times for light propagation thereof, a condenser superimposing light of split beams propagated through the optical paths, respectively, on an identical spot of a measuring material (100), for irradiation therewith, a laser interferometer (30) irradiating the measuring material (100) with light of a second laser beam, having light intensity variations resulted from interferences between reference light and light of the second laser beam reflected or scattered, as bases to detect ultrasonic waves energized by light of the first laser beam and transmitted in the measuring material (100), a waveform analyzer (32) calculating a metallic microstructure or a material property of the measuring material (100) based on ultrasonic waves.
    • 脉冲激光振荡器(11)输出第一激光束,将第一激光束分裂成分裂光束的分束器,分别传播不同时间分裂的分束光的光路(12,13,14,15,16) 对于其光传播,聚光器将分别在光路上传播的分裂光束的光分别叠加在测量材料(100)的同一点上,用于照射测量材料(100)的激光干涉仪(30),照射测量材料(100) 第二激光束的光由具有反射或散射的第二激光束的参考光和光之间的干扰导致的光强度变化作为基准,以检测由第一激光束的光激发并在测量材料(100)中透射的超声波 ),基于超声波计算测量材料(100)的金属微结构或材料特性的波形分析器(32)。
    • 5. 发明申请
    • CONTROL SETUP DEVICE AND CONTROL SETUP METHOD
    • 控制设置和控制设置方法
    • US20120260708A1
    • 2012-10-18
    • US13503108
    • 2009-10-21
    • Kazuhiro OharaNaoki ShimodaMitsuhiko Sano
    • Kazuhiro OharaNaoki ShimodaMitsuhiko Sano
    • B21C51/00
    • B21B37/16B21B45/0218B21B2027/103
    • According to a certain embodiment, a control setup deice (200) includes an execution parameter information storage area (206d) for storing execution parameter information, an SGF table storage area (206b) for storing SGF tables, a finish spray code table storage area (206c) for storing finish spray code tables, a composition data storage area (206e) for storing composition data tables representing composition data of steel type families, and a control setup determiner (201b) operable when a detemination of a set of control set-points in steel type families is requested, to determine a set of control set-points based on a composition data table, a composition data and a combination of a target plate thickness and a target plate width contained in a setup request signal, first control information, and execution parameter information, and when a determination of a set of control set-points in steel types is requested, to determine a set of control set-points based on second control information, a steel type and a combination of a target plate thickness and a target plate width contained in the setup request signal, and execution parameter information.
    • 根据一个实施例,控制设置装置(200)包括用于存储执行参数信息的执行参数信息存储区域(206d),用于存储SGF表的SGF表存储区域(206b),完成喷涂代码表存储区域 206c),用于存储表示钢种族的组合数据的合成数据表的合成数据存储区域(206e),以及当确定一组控制设定点时可操作的控制设置确定器(201b) 在钢种族中,要求基于组合数据表,组合数据以及设置请求信号中包含的目标板厚度和目标板宽度的组合数据以及第一控制信息来确定一组控制设定点, 以及执行参数信息,并且当要求确定钢种的一组控制设定点时,基于第二控制通知来确定一组控制设定点 包括在建立请求信号中的钢种类型和目标板厚度和目标板宽度的组合以及执行参数信息。
    • 6. 发明授权
    • Microstructural feature and material property monitoring device for metallic material
    • 金属材料的微结构特征和材料性能监测装置
    • US07821645B2
    • 2010-10-26
    • US11994666
    • 2007-01-11
    • Mitsuhiko SanoKazuhiro Ohara
    • Mitsuhiko SanoKazuhiro Ohara
    • G01B11/02
    • G01N29/2418G01N29/265G01N2291/0289
    • A microstructural feature and material property monitoring device for a metallic material that can easily adjust relative position between an irradiation position of laser beams applied to the metallic material to propagate pulsed ultrasonic waves in the metallic material and detection position of a laser interferometer, and therefore can accurately monitor the microstructural feature and material property of the metallic material. The device relatively moves the irradiation position of the laser beams generated by a laser oscillator and the detection position of the laser interferometer. The irradiation position of the laser beams generated from a laser oscillator and the detection position of the laser interferometer are controlled to be aligned with a relative position according to the microstructural feature and material property of the metallic material based on the time from the transmission of the pulsed ultrasonic waves to the detection by the laser interferometer. After the alignment, the microstructural feature and material property of the metallic material is calculated based on the waveform of the pulsed ultrasonic waves generated as an electrical signal by the laser interferometer.
    • 一种用于金属材料的微结构特征和材料性质监测装置,其可以容易地调整施加到金属材料的激光束的照射位置之间的相对位置,以在金属材料中传播脉冲超声波和激光干涉仪的检测位置,因此可以 准确监测金属材料的微结构特征和材料性能。 该装置相对移动由激光振荡器产生的激光束的照射位置和激光干涉仪的检测位置。 从激光振荡器产生的激光束的照射位置和激光干涉仪的检测位置被控制为根据金属材料的显微结构特征和材料性质的相对位置,基于从 脉冲超声波由激光干涉仪进行检测。 在对准之后,基于由激光干涉仪作为电信号产生的脉冲超声波的波形来计算金属材料的微结构特征和材料特性。
    • 7. 发明申请
    • PROPERTY MEASUREMENT SYSTEM FOR METAL MATERIAL
    • 金属材料性能测量系统
    • US20130335745A1
    • 2013-12-19
    • US14001893
    • 2011-02-28
    • Mitsuhiko Sano
    • Mitsuhiko Sano
    • G01N21/17
    • G01N21/1702G01N29/2418G01N29/46G01N2291/0234
    • A property measurement system for a metal material includes: a laser oscillator that emits a pulse laser beam; a lens array that has small lenses with a same shape, the small lenses being laid in a matrix on a plane perpendicular to an optical axis of the pulse laser beam, and arranged so that a part of a cross section of the pulse laser beam can be made incident onto each of small lenses; a condensing lens that overlaps and condenses emitted beams coming from the small lenses on a same region of a surface of a metal material as a measurement target; a laser interferometer that detects, as an electric signal, a pulse ultrasonic wave that is excited by the pulse laser beam condensed and propagates through an inside of the metal material; and a signal processing device that processes the electric signal.
    • 一种用于金属材料的性能测量系统包括:发射脉冲激光束的激光振荡器; 具有相同形状的小透镜的透镜阵列,所述小透镜在与所述脉冲激光束的光轴垂直的平面上以矩阵形式放置,并且布置成使得所述脉冲激光束的横截面的一部分可以 在每个小镜头上进行事件处理; 聚光透镜,其与来自小透镜的发射光束重叠并冷凝在与测量对象物相同的金属材料表面上; 激光干涉仪,其检测由所述脉冲激光束激发的脉冲超声波作为电信号,所述脉冲超声波被冷凝并传播通过所述金属材料的内部; 以及处理电信号的信号处理装置。
    • 9. 发明授权
    • Rolled material temperature control method and rolled material temperature control equipment of delivery side of rolling mill
    • 轧制材料轧制材料温度控制方法和轧制材料温度控制设备
    • US06220067B1
    • 2001-04-24
    • US09489021
    • 2000-01-21
    • Mitsuhiko Sano
    • Mitsuhiko Sano
    • B21B3774
    • C21D11/005B21B37/74C21D11/00
    • Inter-rolling stand cooling devices are provided. When determining rolling speed and cooling water flows based upon the material temperature measured further upstream than the rolling mill, material positions detected by sensors on the mill line and information pre-determined in accordance with the production plan that includes material Steel Grade, rolling mill entry side material thickness, product strip thickness target value and rolling mill delivery side temperature target value, the positions in the longitudinal direction of multiple calculation points on the material are calculated based upon initial information, the heat generation and heat loss occurring at each rolling stand are calculated at every calculation point based upon the initial information and the positions in the longitudinal direction of the multiple calculation points, the rolling mill delivery side material temperature is calculated based upon the various heat generation and heat loss, and similar operations are repeated until the deviation of the rolling mill delivery side temperature from the target temperature is contained within permissible limits.
    • 提供横轧机架冷却装置。 在根据轧机进一步上游测量的材料温度来确定轧制速度和冷却水流量时,根据轧制线上的传感器检测到的材料位置以及根据生产计划预先确定的包括材料钢种,轧机进料的信息 侧材料厚度,产品带材厚度目标值和轧机输送侧温度目标值,根据初始信息计算材料上多个计算点的长度方向位置,每个轧制机架发生的发热和热损失为 根据初始信息和多个计算点的长度方向的位置在每个计算点计算出,基于各种发热和热损失来计算轧机输送侧材料温度,并重复类似的操作直到偏差 的轧机 从目标温度的输送侧温度包含在允许的极限内。
    • 10. 发明授权
    • Laser ultrasonic property measurement apparatus
    • 激光超声波特性测量仪
    • US08006560B2
    • 2011-08-30
    • US12297103
    • 2006-04-14
    • Mitsuhiko Sano
    • Mitsuhiko Sano
    • G01N29/34G01N29/06
    • G01N29/2418G01N2291/0234G01N2291/0289G01N2291/102
    • A mode of the present invention includes a transmitter (12) for shooting exciting laser light to an object of measurement (M) to excite ultrasonic waves in the object of measurement (M), a receiver (14) for shooting probing laser light to the object of measurement (M) to receive reflected light of probing laser light from the object of measurement (M) for detection of ultrasonic waves, a light blocking structure (16) having a first opening (16a) allowing the object of measurement (M) to pass therethrough and operable to accommodate the object of measurement (M), and a cover (18) operable to cover and open the first opening (16a).
    • 本发明的一种模式包括:用于将激光激光射入测量对象(M)的激发激光以发射测量对象(M)中的超声波的发射器(12),用于将探测激光照射到 用于从用于检测超声波的测量对象(M)接收探测激光的反射光的测量对象(M),具有允许测量对象(M)的第一开口(16a)的遮光结构(16) 通过并可操作以容纳测量对象(M),以及可操作以覆盖和打开第一开口(16a)的盖(18)。