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    • 51. 发明授权
    • Ultrasonic inspection method and ultrasonic inspection device
    • 超声波检测方法和超声波检测装置
    • US09140670B2
    • 2015-09-22
    • US12975414
    • 2010-12-22
    • So KitazawaNaoyuki KonoAtsushi Baba
    • So KitazawaNaoyuki KonoAtsushi Baba
    • G06F19/00G01N29/06G01N29/26G01N29/44
    • G01N29/0663G01N29/262G01N29/4409G01N2291/105
    • An ultrasonic inspection method and an ultrasonic inspection device allow three-dimensional inspection data and three-dimensional shape data to be appropriately positioned on a display screen and allow a defect echo and a shape echo to be quickly identified even when information on the relative positions of a probe and an object to be inspected is not provided. The ultrasonic inspection data that is generated from the waveforms of ultrasonic waves received by an ultrasonic probe is compared with a plurality of ultrasonic propagation data pieces calculated by a ray tracing method on the basis of the three-dimensional shape data on an object to be inspected. The position of the three-dimensional inspection data or the three-dimensional shape data is moved relative to the other data position on the basis of the comparison results, thereby displaying the three-dimensional inspection data and the three-dimensional shape data while overlapping each other.
    • 超声波检查方法和超声波检查装置允许三维检查数据和三维形状数据适当地定位在显示屏幕上,并且即使当关于相对位置的信息的信息也可以快速识别缺陷回波和形状回波 不提供探针和被检查物体。 将由超声波探头接收的超声波的波形产生的超声波检查数据与通过光线追踪方法计算出的多个超声波传播数据进行比较,并根据对被检体的三维形状数据 。 基于比较结果,三维检查数据或三维形状数据的位置相对于其他数据位置移动,从而显示三维检查数据和三维形状数据,同时重叠每个 其他。
    • 52. 发明授权
    • Ultrasonic inspection equipment and ultrasonic inspection method
    • 超声波检测设备和超声波检测方法
    • US08583393B2
    • 2013-11-12
    • US12472873
    • 2009-05-27
    • So KitazawaNaoyuki KonoAtsushi Baba
    • So KitazawaNaoyuki KonoAtsushi Baba
    • G10K11/00
    • G10K11/00G01N29/04G01N29/06G06T19/20
    • Ultrasonic inspection equipment facilitates alignment of display positions of three-dimensional ultrasonic inspection data and three-dimensional shape data, and quickly discriminates between a defect echo and an inner-wall echo. A computer 102A has a position correction function of correcting a relative display position between three-dimensional shape data and three-dimensional ultrasonic inspection data. A display position of the three-dimensional ultrasonic inspection data or that of the three-dimensional shape data is moved by a norm of a mean vector along the mean vector that is calculated from a plurality of vectors defined by a plurality of points selected in the three-dimensional ultrasonic inspection data and by a plurality of points selected in the three-dimensional shape data. The three-dimensional shape data and the three-dimensional ultrasonic inspection data are displayed in such a manner as to be superimposed on each other on a three-dimensional display unit 103C.
    • 超声波检查设备有助于三维超声波检查数据和三维形状数据的显示位置的对准,并且可以快速地区分缺陷回波和内壁回波。 计算机102A具有校正三维形状数据和三维超声波检查数据之间的相对显示位置的位置校正功能。 三维超声波检查数据的显示位置或三维形状数据的显示位置沿着平均矢量的范数移动,该平均矢量是从由多个点中选择的多个点定义的多个向量计算的平均矢量 三维超声波检查数据以及在三维形状数据中选择的多个点。 三维形状数据和三维超声波检查数据以三维显示单元103C彼此叠加的方式显示。
    • 54. 发明申请
    • Heat-Resistant Ultrasonic Sensor and Installation Method Thereof
    • 耐热超声波传感器及其安装方法
    • US20120291554A1
    • 2012-11-22
    • US13474065
    • 2012-05-17
    • Atsushi BABAYoshinori MushaMasahiro Koike
    • Atsushi BABAYoshinori MushaMasahiro Koike
    • G01H11/08H01L41/22
    • G01N29/228G01N29/245G01N2291/0289Y10T29/42
    • A heat-resistant ultrasonic sensor forms a piezo-electric ceramics film with a thickness of 0.5 mm or smaller and a Curie point of 200° C. or higher on a flexible metal plate. A thin metal film that is an electrode is attached to a top surface of the piezo-electric ceramics film and a metal wire mesh covers the thin metal film and is attached to a top surface of the thin metal film. A core of a heat-resistant coaxial cable is connected to the metal wire mesh at a connection point. The heat-resistant coaxial cable is fixed to the thin metal plate with a metal fixing member that is a ground portion. An electric insulating cover is attached to the thin metal plate and covers the piezo-electric ceramics film, the thin metal film, the metal wire mesh, the connection point, the fixing member, and the core of the coaxial cable.
    • 耐热超声波传感器在柔性金属板上形成厚度为0.5mm以下,居里点为200℃以上的压电陶瓷膜。 作为电极的薄金属膜附着在压电陶瓷膜的上表面,金属丝网覆盖薄金属膜,并附着在金属薄膜的上表面。 耐热同轴电缆的芯线在连接点处连接到金属丝网。 耐热同轴电缆用作为接地部的金属固定部件固定在薄金属板上。 电绝缘盖安装在薄金属板上,覆盖压电陶瓷膜,薄金属膜,金属丝网,连接点,固定件和同轴电缆芯。
    • 55. 发明申请
    • ULTRASONIC INSPECTION EQUIPMENT AND ULTRASONIC INSPECTION METHOD
    • 超声波检查设备和超声波检测方法
    • US20120137778A1
    • 2012-06-07
    • US13372003
    • 2012-02-13
    • So KITAZAWANaoyuki KONOAtsushi BABA
    • So KITAZAWANaoyuki KONOAtsushi BABA
    • G01N29/00
    • G10K11/00G01N29/04G01N29/06G06T19/20
    • Ultrasonic inspection equipment facilitates alignment of display positions of three-dimensional ultrasonic inspection data and three-dimensional shape data, and quickly discriminates between a defect echo and an inner-wall echo. A computer 102A has a position correction function of correcting a relative display position between three-dimensional shape data and three-dimensional ultrasonic inspection data. A display position of the three-dimensional ultrasonic inspection data or that of the three-dimensional shape data is moved by a norm of a mean vector along the mean vector that is calculated from a plurality of vectors defined by a plurality of points selected in the three-dimensional ultrasonic inspection data and by a plurality of points selected in the three-dimensional shape data. The three-dimensional shape data and the three-dimensional ultrasonic inspection data are displayed in such a manner as to be superimposed on each other on a three-dimensional display unit 103C.
    • 超声波检查设备有助于三维超声波检查数据和三维形状数据的显示位置的对准,并且可以快速地区分缺陷回波和内壁回波。 计算机102A具有校正三维形状数据和三维超声波检查数据之间的相对显示位置的位置校正功能。 三维超声波检查数据的显示位置或三维形状数据的显示位置沿着平均矢量的范数移动,该平均矢量是从由多个点中选择的多个点定义的多个向量计算的平均矢量 三维超声波检查数据以及在三维形状数据中选择的多个点。 三维形状数据和三维超声波检查数据以三维显示单元103C彼此叠加的方式显示。
    • 56. 发明申请
    • ULTRASONIC INSPECTION DEVICE AND ULTRASONIC INSPECTION METHOD
    • 超声波检查装置及超声波检查方法
    • US20110164033A1
    • 2011-07-07
    • US12974004
    • 2010-12-21
    • So KITAZAWANaoyuki KONOAtsushi BABA
    • So KITAZAWANaoyuki KONOAtsushi BABA
    • G06T15/00G03B42/06
    • G01N29/069G01N29/262G01N2291/106G01S7/52074G01S15/8993G06T7/001G06T19/00G06T2200/24G06T2207/10136G06T2207/30164
    • An ultrasonic inspection device allows position adjustment of three-dimensional inspection data and shape data to be easily performed on a display screen and allows a defect echo and a shape echo to be quickly identified. A calculator generates the three-dimensional inspection data from waveforms stored in a data storage unit. A three-dimensional display unit displays the three-dimensional inspection data generated by the calculator and the three-dimensional shape data on an object to be inspected. The calculator corrects the relative displayed positions of the three-dimensional inspection data and the three-dimensional shape data on the basis of a coordinate system defined by points and a surface that constitute a part of the three-dimensional shape data displayed by the three-dimensional display unit, and causes the three-dimensional display unit to display the three-dimensional inspection data and the three-dimensional shape data while the three-dimensional inspection data and the three-dimensional shape data overlap each other.
    • 超声波检查装置允许在显示屏幕上容易地执行三维检查数据和形状数据的位置调整,并允许快速识别缺陷回波和形状回波。 计算器从存储在数据存储单元中的波形生成三维检查数据。 三维显示单元将由计算器生成的三维检查数据和关于待检查对象的三维形状数据显示。 基于由构成由三维形状数据显示的三维形状数据的一部分的点和面构成的坐标系,计算器校正三维检查数据和三维形状数据的相对显示位置。 并且在三维检查数据和三维形状数据彼此重叠的同时使三维显示单元显示三维检查数据和三维形状数据。
    • 59. 发明授权
    • Internal combustion engine
    • 内燃机
    • US07191740B2
    • 2007-03-20
    • US10494054
    • 2002-10-23
    • Atsushi BabaTsuneo EndohMasashi Shinohara
    • Atsushi BabaTsuneo EndohMasashi Shinohara
    • F02F1/36F02F1/40F02F1/26F28F13/00F01P3/02F01P3/20
    • F02G5/02F01P3/02F01P2003/024F02F1/38F02F1/40Y02T10/166
    • A cooling block forming a top wall of a combustion chamber of an internal combustion engine is formed by layering, from the outside to the inside, a casing, an upper layer block, a middle layer block, and a lower layer block. Labyrinth-shaped cooling water passages are formed on upper side faces of the three layers of blocks, and cooling water supplied from a cooling water supply passage flows from the cooling water passage on the side far from the combustion chamber to the cooling water passage on the side close to the combustion chamber, and is discharged from a cooling water discharge passage. Since the cooling water flows in a direction opposite to the direction of emission of heat of combustion from the combustion chamber, it is possible to ensure that there is sufficient difference in temperature between a cylinder head and the cooling water throughout the cooling water passages.
    • 通过从壳体,上层块,中间层块和下层块的外部到内部层叠形成内燃机的燃烧室的顶壁的冷却块。 迷宫式冷却水通道形成在三层块的上侧面上,从冷却水供给路供给的冷却水从远离燃烧室侧的冷却水通路流向冷却水通道 靠近燃烧室,并从冷却水排出通道排出。 由于冷却水沿着与来自燃烧室的燃烧热的排放方向相反的方向流动,因此可以确保在整个冷却水通道中气缸盖和冷却水之间的温度存在足够的差异。
    • 60. 发明申请
    • Heat exchange device
    • 换热装置
    • US20060254256A1
    • 2006-11-16
    • US10496078
    • 2002-11-01
    • Masashi ShinoharaTsuneo EndohAtsushi Baba
    • Masashi ShinoharaTsuneo EndohAtsushi Baba
    • F01N5/02F01N3/00
    • F02D41/3005F01N3/043F01N5/02F01N2240/02F01P3/12F01P3/22F01P2060/16F02D41/1454F02G5/02F22B1/1807Y02E20/363Y02T10/16Y02T10/166Y02T10/20
    • A heat exchange system is provided that includes an evaporator (11) that carries out heat exchange between exhaust gas discharged from an exhaust port (16B) and water, exhaust gas passages (87, 88) on the upstream side in the direction of flow of the exhaust gas being disposed on the radially inner side, an exhaust gas passage (89) on the downstream side being disposed on the radially outer side, and an oxygen concentration sensor cooling portion (92) for cooling a mounting section of an oxygen concentration sensor (91) facing the exhaust gas passage (87) on the most upstream side being positioned on the radially outer side of the exhaust gas passage (87). Water is supplied separately to a water passage (W3) of the evaporator (11) and a water passage (W4) of the oxygen concentration sensor cooling portion (92), and the water passage (W3) of the evaporator (11) is arranged so that the direction of flow of the water is opposite to the direction of flow of the exhaust gas. It is thereby possible to improve the waste heat recovery efficiency of the evaporator (11) that carries out heat exchange between the exhaust gas of an internal combustion engine and water and, in particular, to minimize the escape of heat via the oxygen concentration sensor (91) for detecting the condition of the exhaust gas.
    • 提供了一种热交换系统,其包括在排气口(16B)排出的废气与水之间进行热交换的蒸发器(11),在流动方向上游侧的排气通路(87,88) 的排气在径向内侧配置,下游侧的排气通路(89)配置在径向外侧,氧浓度传感器冷却部(92),用于冷却氧浓度的安装部 位于排气通道(87)的径向外侧上的最上游侧的排气通路(87)的传感器(91)。 水分别供给蒸发器(11)的水通道(W 3)和氧浓度传感器冷却部分(92)的水通道(W 4)和蒸发器(11)的水通道(W 3) )被布置成使得水的流动方向与废气的流动方向相反。 由此,能够提高在内燃机的废气与水之间进行热交换的蒸发器(11)的废热回收效率,特别是通过氧浓度传感器使热量逸出最小化 91),用于检测废气的状况。