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    • 4. 发明申请
    • METHOD OF CALIBRATING LOAD MEASUREMENT APPARATUS, LOAD MEASUREMENT SYSTEM OF WIND TURBINE BLADE, AND WIND TURBINE
    • 风速测量装置的校准方法,风力涡轮叶片负荷测量系统和风力发电机
    • US20170074743A1
    • 2017-03-16
    • US15140485
    • 2016-04-28
    • MITSUBISHI HEAVY INDUSTRIES, LTD.
    • Mitsuya BABAWakako ARIKI
    • G01L25/00F03D17/00G01B11/16
    • G01L25/00F03D17/00F05B2270/17F05B2270/331F05B2270/332G01B11/165G01M5/00
    • A method of calibrating a load measurement apparatus for measuring a load on a wind turbine blade on the basis of strain data based on strain of a wind turbine blade includes: a strain-data acquisition step of, during a startup of a wind turbine, obtaining a plurality of the strain data for each of a plurality of conditions among which at least one of an azimuth angle or a pitch angle of the wind turbine blade is different from one another; a theoretical load-value acquisition step of obtaining a theoretical load value applied to the wind turbine blade due to own weight of the wind turbine blade, for each of the plurality of conditions, on the basis of the azimuth angle and the pitch angle of the wind turbine blade in each of the plurality of conditions; and a calibration-parameter calculation step of calculating a calibration parameter representing a relationship between the strain data obtained by the load measurement apparatus and the load on the wind turbine blade, on the basis of a correlation between each of the strain data and the theoretical load value.
    • 基于风力涡轮机叶片的应变的应变数据,校准用于测量风力涡轮机叶片上的负载的负载测量装置的方法包括:应变数据获取步骤,在风力涡轮机启动期间获得 多个条件中的每一个的多个应变数据,其中风力涡轮机叶片的方位角或俯仰角中的至少一个彼此不同; 理论载荷值获取步骤,根据风力涡轮机叶片的各自的重量,基于所述风力涡轮机叶片的方位角和俯仰角,获得施加到风力涡轮机叶片的理论载荷值 在多个条件中的每一个中的风力涡轮机叶片; 以及校准参数计算步骤,基于每个应变数据和理论负载之间的相关性来计算表示由负载测量装置获得的应变数据与风力涡轮机叶片上的负载之间的关系的校准参数 值。
    • 5. 发明授权
    • Passive monitoring device of the inner pressure in a block of building material
    • 被动监测装置内部压力在一块建筑材料中
    • US09234808B2
    • 2016-01-12
    • US13851671
    • 2013-03-27
    • STMICROELECTRONICS S.R.L.
    • Giovanni GirlandoAlessandro FinocchiaroBruno Murari
    • G01M5/00G01L7/16G01L1/14
    • G01L1/14G01M5/00
    • A monitoring device is for the inner pressure distribution of building material in a building structure. The device may include planar sensing capacitors to be buried in contact with the building material, with each sensing capacitor including a pair of plates and a dielectric material layer therebetween adapted to undergo elastic deformation under pressure without deforming plastically. The device may also include a protection box to be buried in the building material, a dielectric material enclosed in the protection box, and connection terminals protruding from the protection box. Pairs of metal vias are buried in the dielectric material enclosed within the protection box, with each pair connecting the plates of a respective planar sensing capacitor to respective connection terminals.
    • 监测装置用于建筑结构中的建筑材料的内部压力分布。 该装置可以包括要与建筑材料接触的平面感测电容器,每个感测电容器包括一对板和介于其之间的电介质材料层,适于在压力下经受弹性变形而不会塑性变形。 该装置还可以包括要埋在建筑材料中的保护盒,封闭在保护盒中的电介质材料以及从保护盒突出的连接端子。 金属通孔对被埋在封装在保护箱内的电介质材料中,每对将相应的平面感测电容器的板连接到相应的连接端子。
    • 6. 发明授权
    • Apparatus and method for quantifying metal surface treatment
    • 用于量化金属表面处理的装置和方法
    • US09063049B2
    • 2015-06-23
    • US13670648
    • 2012-11-07
    • Hydro Honing Laboratories, Inc.
    • Thomas A. BeachWalter A. Beach
    • G01N3/62G01M5/00G01N3/30
    • G01N3/62G01M5/00G01N3/30G01N2203/0246G01N2203/0298G01N2203/0664
    • A method for measuring a metal surface treatment of a metal component includes creating a solid model of the metal component, identifying surface locations on the metal component at which a set of structural properties is specified by design, and identifying a simulated location on the solid model corresponding to the identified surface location on the metal component. The method includes preparing a simulation fixture plan for fabricating a simulation fixture having an element for supporting a test strip holder thereon at the identified simulated location, and then fabricating the simulation fixture. A test strip holder is positioned at the identified simulated location on the simulation fixture, and a test strip is positioned in the test strip holder. The simulation fixture is subjected to the metal surface treatment wherein the simulation fixture has the test strip holder positioned thereon and the test strip holder has the test strip positioned thereon.
    • 用于测量金属部件的金属表面处理的方法包括:创建金属部件的实体模型,识别通过设计指定一组结构特性的金属部件上的表面位置,以及在实体模型上识别模拟位置 对应于金属部件上所识别的表面位置。 该方法包括制备用于制造具有用于在所识别的模拟位置处支撑测试条保持器的元件的模拟夹具的模拟夹具平面图,然后制造模拟夹具。 测试条保持器位于模拟夹具上的所识别的模拟位置,并且测试条定位在测试条夹中。 模拟夹具经受金属表面处理,其中模拟夹具具有定位在其上的测试条保持器,并且测试条保持器具有位于其上的测试条。
    • 7. 发明授权
    • Autonomous sensing module, a system and a method of long-term condition monitoring of structures
    • 自主感知模块,结构长期状态监测系统及方法
    • US08618934B2
    • 2013-12-31
    • US12767779
    • 2010-04-26
    • Nickolai S BelovOlga V Belova
    • Nickolai S BelovOlga V Belova
    • G08B1/08G08B21/00G06K9/00B60R25/10G05F3/06
    • G01M5/0008G01M5/00
    • A system and a method of long-term condition monitoring of structures are based on use of autonomous sensing modules, centers for storing and processing data and software for data analysis. An autonomous sensing module contains a set of sensors for measurements of parameters related to the condition of a monitored structure, a non-volatile memory, a wireless data transfer unit, a controller, a clock circuit, a battery, an energy harvesting device and a power management unit. The autonomous sensing module provides a very long-term (40 years or more) functionality and reliability due to both use of at least near hermetic packages for the controller, the non-volatile memory, the battery, the clock circuit and the power management unit and choosing the duration of periods when the sensing module works in active mode in such a way that the average energy consumed by the autonomous sensing module is fully compensated by the average energy harvested by the energy harvesting device.
    • 结构的长期状态监测的系统和方法是基于自主感测模块的使用,用于存储和处理数据的中心以及用于数据分析的软件。 自主感测模块包含一组传感器,用于测量与被监测结构的状况有关的参数,非易失性存储器,无线数据传送单元,控制器,时钟电路,电池,能量收集装置和 电源管理单元。 自主感测模块提供了非常长期(40年以上)的功能和可靠性,这是由于至少使用密封包装用于控制器,非易失性存储器,电池,时钟电路和电源管理单元 以及选择感测模块以主动模式工作的周期的持续时间,使得自主感测模块消耗的平均能量由能量采集装置收集的平均能量完全补偿。
    • 10. 发明申请
    • PASSIVE MONITORING DEVICE OF THE INNER PRESSURE IN A BLOCK OF BUILDING MATERIAL
    • 建筑材料块内部压力的被动监测装置
    • US20130255395A1
    • 2013-10-03
    • US13851671
    • 2013-03-27
    • STMICROELECTRONICS S.R.L.
    • Giovanni GIRLANDOAlessandro FINOCCHIAROBruno MURARI
    • G01L1/14
    • G01L1/14G01M5/00
    • A monitoring device is for the inner pressure distribution of building material in a building structure. The device may include planar sensing capacitors to be buried in contact with the building material, with each sensing capacitor including a pair of plates and a dielectric material layer therebetween adapted to undergo elastic deformation under pressure without deforming plastically. The device may also include a protection box to be buried in the building material, a dielectric material enclosed in the protection box, and connection terminals protruding from the protection box. Pairs of metal vias are buried in the dielectric material enclosed within the protection box, with each pair connecting the plates of a respective planar sensing capacitor to respective connection terminals.
    • 监测装置用于建筑结构中的建筑材料的内部压力分布。 该装置可以包括要与建筑材料接触的平面感测电容器,每个感测电容器包括一对板和介于其之间的电介质材料层,适于在压力下经受弹性变形而不会塑性变形。 该装置还可以包括要埋在建筑材料中的保护盒,封闭在保护盒中的电介质材料以及从保护盒突出的连接端子。 金属通孔对被埋在封装在保护箱内的电介质材料中,每对将相应的平面感测电容器的板连接到相应的连接端子。