会员体验
专利管家(专利管理)
工作空间(专利管理)
风险监控(情报监控)
数据分析(专利分析)
侵权分析(诉讼无效)
联系我们
交流群
官方交流:
QQ群: 891211   
微信请扫码    >>>
现在联系顾问~
热词
    • 4. 发明专利
    • ULTRASONIC MEASURING DEVICE
    • JPH11101632A
    • 1999-04-13
    • JP27665697
    • 1997-09-25
    • TOSHIBA CORPTOSHIBA ENGINEERING CO
    • OCHIAI MAKOTOOTSUKI MASAHIKOBUTSUEN TAKASHI
    • G01B17/02G01N29/00
    • PROBLEM TO BE SOLVED: To accurately measure the thickness of an object to be measured, the position of a phase change, and the state of a composition change even if the object is small or is located at a narrow section at a high temperature, by exciting and detecting ultrasonic waves in no contact with the object. SOLUTION: An ultrasonic wave transmitting means 11 excites ultrasonic waves 5 in no contact toward a face of a measured object 1, and an ultrasonic wave receiving means 12 detects reflected waves 9, 10 generated when the ultrasonic waves 5 propagated in the object 1 to be measured are reflected by an acoustic characteristic change region in no contact. A propagation time measuring means 13 measures the propagation time of the ultrasonic waves 5 based on the difference between transmission time of the ultrasonic waves 5 and the reception time of the reflected waves 9, 10. Temperature measuring means 14a, 14b measure the temperature of the ultrasonic wave excitation face of the measured object 1 or its back face or the temperatures of both of them. A velocity calibrating means 15 calibrates the propagation velocity of the ultrasonic waves 5 in the measured object 1 based on the temperatures measured by the temperature measuring means 14a, 14b. A propagation path length measuring means 16 calculates the propagation path length of the ultrasonic waves 5 based on the propagation time and the propagation velocity.
    • 6. 发明专利
    • SURFACE INSPECTING APPARATUS
    • JP2000180418A
    • 2000-06-30
    • JP35144098
    • 1998-12-10
    • TOSHIBA CORPTOSHIBA ENGINEERING CO
    • OCHIAI MAKOTOCHIHOSHI ATSUSHIBUTSUEN TAKASHINARUSE KATSUHIKOHIRANO SHOZOHIRASAWA TAIJI
    • G01N29/00G01B11/30G01N29/44
    • PROBLEM TO BE SOLVED: To provide a surface inspecting apparatus capable of detecting the presence and dimension of the surface flaw of an object to be measured in a non-contact and non-destructive manner with high accuracy. SOLUTION: A surface inspecting apparatus is constituted of a surface wave transmitting means 10 for exciting surface waves in a non-contact state with respect to a certain part of an object to be measured, a surface wave detecting means 14 comprising one surface wave detecting element preliminarily arranged at a known position with respect to a transmission position and detecting surface waves or both of surface waves and flaw waves among the surface waves propagated through the surface of the object to be measured and flaw waves generated by the reflection, transmission, diffraction and scattering of the surface waves at a flaw place in a non-contact state, a flaw-detecting means 17 detecting one of the presence and depth of a flaw or both of them from the output signal of the surface wave detecting element, a flaw identifying means 17 adding the presence and depth of the flaw from the flaw wave component contained in the output signal of the surface wave detecting element to identify the position of the flaw and a sonic speed calibrating means 17 calibrating the sonic speed of surface waves from the propagation time of the surface wave component.
    • 9. 发明专利
    • Ultrasonic measuring system
    • 超声波测量系统
    • JP2008102160A
    • 2008-05-01
    • JP2008009219
    • 2008-01-18
    • Toshiba CorpToshiba Plant Systems & Services Corp東芝プラントシステム株式会社株式会社東芝
    • OCHIAI MAKOTOOTSUKI MASAHIKOBUTSUEN TAKASHI
    • G01B17/02
    • PROBLEM TO BE SOLVED: To provide ultrasonic measuring system which can measure with high accurately the thickness, phase change position and compositional variation states of a measuring object, even when the measuring object is small or is located in a narrow section, or is at a high temperature, such as, in a metal which is being welded.
      SOLUTION: In this ultrasonic measuring system, ultrasonic waves are excited by an ultrasonic transmission means in a non-contact manner, in the area where the measuring object is located, then the ultrasonic waves that passed through the measuring object are detected by an ultrasonic receiving means. In addition, a propagation time measuring means measures the propagation time of the ultrasonic waves, from the time difference between the transmission time of the ultrasonic waves and the reception time of the ultrasonic waves. A velocity calibration means calibrates the propagation velocity of the ultrasonic waves in the measuring object from the temperature or the temperature distribution of the measuring object measured by temperature measuring means; while a propagation path length measuring means computes the propagation path length of the ultrasonic waves, from both the propagation time measured by the propagation time measuring means and the sound wave velocity obtained by the velocity calibration means.
      COPYRIGHT: (C)2008,JPO&INPIT
    • 要解决的问题:为了提供能够高精度地测量测量对象的厚度,相位和组成变化状态的超声波测量系统,即使当测量对象较小或位于狭窄部分时,或 处于高温下,例如在被焊接的金属中。 解决方案:在这种超声波测量系统中,超声波被非接触式的超声波传输装置在测量对象所在的区域激发,然后通过测量对象的超声波被 超声波接收装置。 此外,传播时间测量装置根据超声波的传输时间与超声波的接收时间之间的时间差来测量超声波的传播时间。 速度校准装置根据由测量装置测量的测量对象的温度或温度分布校准测量对象中超声波的传播速度; 而传播路径长度测量装置从由传播时间测量装置测量的传播时间和通过速度校准装置获得的声波速度两者来计算超声波的传播路径长度。 版权所有(C)2008,JPO&INPIT
    • 10. 发明专利
    • Processor and method for processing ultrasonic flaw detection image
    • 用于处理超声波检测图像的处理器和方法
    • JP2007101320A
    • 2007-04-19
    • JP2005290395
    • 2005-10-03
    • Toshiba CorpToshiba Plant Systems & Services Corp東芝プラントシステム株式会社株式会社東芝
    • TSUYUKI AKIRAKUBO KATSUMIIWATA KIYOSHIBUTSUEN TAKASHI
    • G01N29/06G01N29/44
    • PROBLEM TO BE SOLVED: To provide a processor and a method for processing an ultrasonic flaw detection image, capable of obtaining an ultrasonic flaw detection inspection result of stable quality. SOLUTION: The processor 1 transmits an ultrasonic wave toward an inspected object, and receives an echo image corresponding an echo reflected by a reflection source inside the inspected object to detect a defect, the processor has an image preparation part 3 for converting the received echo image into an image data, a continuous image display part 5 for displaying continuously a plurality of images generated in the image preparation part 3, an image area information processing part 6 for limiting a pixel resolution and a display area of the image and for preparing a limited area image, an image-to-image motion tracking processing part 7 for tracking the moving of a pixel serving as a defect candidate, using the successive front and rear side images in the images, and a defect position determination part 8 for extracting the defect from the continuity of the plurality of defect candidates to determine a defect position thereof. COPYRIGHT: (C)2007,JPO&INPIT
    • 要解决的问题:提供一种处理器和处理超声波探伤图像的方法,能够获得质量稳定的超声波探伤检查结果。 解决方案:处理器1向受检对象发送超声波,并且接收对应于被检查对象内的反射源反射的回波的回波图像以检测缺陷,处理器具有图像准备部分3,用于转换 接收到的回波图像成为图像数据,连续图像显示部分5连续地显示在图像准备部分3中生成的多个图像,图像区域信息处理部分6,用于限制图像的像素分辨率和显示区域, 准备有限区域图像,使用图像中的连续前侧和后侧图像跟踪用作缺陷候选的像素的移动的图像到图像运动跟踪处理部分7,以及用于 从多个缺陷候选者的连续性中提取缺陷以确定其缺陷位置。 版权所有(C)2007,JPO&INPIT