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    • 1. 发明授权
    • Apparatus and method for monitoring the structural integrity of a pipeline by means of a superconducting magnet
    • 通过超导磁体监测管道的结构完整性的装置和方法
    • US09535037B2
    • 2017-01-03
    • US14364129
    • 2012-12-20
    • Eni S.p.A.
    • Alberto Giulio Di LulloGiordano PinarelloAlessandro Bailini
    • G01N27/82
    • G01N27/82
    • An inspection apparatus (100) for monitoring the structural integrity of a pipeline (101) comprising a superconducting electromagnet (102) suitable for generating a magnetic field (106); a cryostat (103) suitable for containing and preserving said superconducting electromagnet (102) at a low temperature; at least two magnetic conveyors (104′, 104″) connected at opposite ends of the cryostat (103) suitable for conveying the magnetic field (106) generated by the superconducting electromagnet (102) to the wall of the pipeline (101) and facilitating the closing of a magnetic circuit; at least one sensor system (105) for revealing the intensity of the magnetic field (106). A method for monitoring the structural integrity of a pipeline (101) using an inspection apparatus (100) according to the present invention. The inspection apparatus (100) according to the present invention advantageously allows the localization of possible structural imperfections or anomalies of the walls of a pipeline (101), using a more efficient magnet with respect to those normally used in the “pigs” known in the state of the art.
    • 一种用于监测管道(101)的结构完整性的检查设备(100),包括适于产生磁场(106)的超导电磁体(102); 适于在低温下容纳和保存所述超导电磁体(102)的低温恒温器(103); 至少两个连接在低温恒温器(103)的相对端的磁性输送器(104',104“),适于将由超导电磁体(102)产生的磁场(106)传送到管道(101)的壁,并且便利 关闭磁路; 至少一个用于显露磁场强度的传感器系统(105)。 一种使用根据本发明的检查装置(100)监测管道(101)的结构完整性的方法。 根据本发明的检查设备(100)有利地允许对管道(101)的壁的可能的结构缺陷或异常的定位,使用相对于在“猪”中已知的“猪”中通常使用的那些的更有效的磁体 最先进的。
    • 2. 发明申请
    • APPARATUS AND METHOD FOR MONITORING THE STRUCTURAL INTEGRITY OF A PIPELINE
    • 监测管道结构完整性的装置和方法
    • US20140312887A1
    • 2014-10-23
    • US14364130
    • 2012-12-20
    • Eni S.p.A.
    • Alberto Giulio Di LulloGiordano PinarelloAldo Canova
    • G01N27/82
    • G01N27/82
    • An inspection apparatus (100) for monitoring the structural integrity of a pipeline (101) comprising a central electromagnetic device (102) suitable for generating a magnetic field (106); a pair of magnetic conveyors (103′, 103″) connected to the central electromagnetic device (102) suitable for conveying the magnetic field (106) to the wall of the pipeline (101); a system of sensors (104) for revealing the magnetic field (106) conveyed on the pipeline (101); electric means (105) for feeding the inspection apparatus (100) and acquiring and storing data relating to the magnetic field (106) revealed; wherein said central electromagnetic device (102) is divided into various ferromagnetic elements (107) held together by a casing (109) made of polymeric material suitable for degrading after prolonged contact with a mixture of hydrocarbons. Method wherein an inspection apparatus according to the present invention is used for monitoring the structural integrity of a pipeline (101).
    • 一种用于监测管道(101)的结构完整性的检查装置(100),包括适于产生磁场(106)的中心电磁装置(102); 连接到适于将磁场(106)传送到管道(101)的壁的中心电磁装置(102)的一对磁性输送机(103',103“); 用于揭示在管道(101)上传送的磁场(106)的传感器系统(104); 电子装置(105),用于馈送检查装置(100)并获取并存储与所述磁场(106)有关的数据; 其特征在于,所述中心电磁装置(102)被分为多个铁磁元件(107),这些铁磁元件(107)由适于在与烃的混合物长时间接触后降解的聚合材料制成的外壳(109)保持在一起。 方法,其中根据本发明的检查装置用于监测管道(101)的结构完整性。
    • 6. 发明申请
    • APPARATUS AND METHOD FOR MONITORING THE STRUCTURAL INTEGRITY OF A PIPELINE BY MEANS OF A SUPERCONDUCTING MAGNET
    • 通过超导磁体监测管道的结构完整性的装置和方法
    • US20140312890A1
    • 2014-10-23
    • US14364129
    • 2012-12-20
    • Eni S.p.A.
    • Alberto Giulio Di LulloGiordano PinarelloAlessandro Bailini
    • G01N27/82
    • G01N27/82
    • An inspection apparatus (100) for monitoring the structural integrity of a pipeline (101) comprising a superconducting electromagnet (102) suitable for generating a magnetic field (106); a cryostat (103) suitable for containing and preserving said superconducting electromagnet (102) at a low temperature; at least two magnetic conveyors (104′, 104″) connected at opposite ends of the cryostat (103) suitable for conveying the magnetic field (106) generated by the superconducting electromagnet (102) to the wall of the pipeline (101) and facilitating the closing of a magnetic circuit; at least one sensor system (105) for revealing the intensity of the magnetic field (106). A method for monitoring the structural integrity of a pipeline (101) using an inspection apparatus (100) according to the present invention. The inspection apparatus (100) according to the present invention advantageously allows the localization of possible structural imperfections or anomalies of the walls of a pipeline (101), using a more efficient magnet with respect to those normally used in the “pigs” known in the state of the art.
    • 一种用于监测管道(101)的结构完整性的检查设备(100),包括适于产生磁场(106)的超导电磁体(102); 适于在低温下容纳和保存所述超导电磁体(102)的低温恒温器(103); 至少两个连接在低温恒温器(103)的相对端的磁性输送器(104',104“),适于将由超导电磁体(102)产生的磁场(106)传送到管道(101)的壁,并且便利 关闭磁路; 至少一个用于显露磁场强度的传感器系统(105)。 一种使用根据本发明的检查装置(100)监测管道(101)的结构完整性的方法。 根据本发明的检查设备(100)有利地允许对管道(101)的壁的可能的结构缺陷或异常的定位,使用相对于在“猪”中已知的“猪”中通常使用的那些的更有效的磁体 最先进的。
    • 9. 发明申请
    • METHOD FOR IDENTIFYING OBSTRUCTIONS IN PIPELINE NETWORKS FOR TRANSPORTING FLUIDS
    • 用于识别用于运输流体的管道网络中的阻塞的方法
    • US20150134276A1
    • 2015-05-14
    • US14398192
    • 2013-05-14
    • ENI S.P.A.
    • Tommaso MantegazzaAlberto Giulio Di LulloPaolo BocchiniAlessandro Marzani
    • G01F1/34
    • It is described a method for detecting and identifying obstructions in a pipeline network for transporting fluids, wherein the network is composed of a plurality of pipeline sections (P) and a plurality of junctions (N). The method comprising the following phases: acquiring the geometrical data of a predefined number of pipeline sections (P) for which the presence of obstructions has to be evaluated; measuring the actual flow-rate values (Q1) of the fluid in one or more pipeline sections (P) and of the actual pressure values (h1) of the fluid at one or more junctions (N) of the network; comparison between the values of the nominal diameters (D1) of said pipeline sections (P) and the corresponding equivalent diameters (Dieq) of said pipeline sections (P); calculating, by means of a specific numerical model, the theoretic flow-rate values (QiT) and pressure values (hiT) of the fluid for said equivalent diameters (Dieq). With =(Dieq)α×Di method provides a calculation phase of the value of the variables vector αi which minimize a function based on the discrepancy between the actual flow-rate (Qi) and pressure (hi) values effectively measured and the corresponding theoretical flow-rate (QiT) and pressure (hiT) values, wherein said calculation phase is performed by applying a certain own fitness function J(α) of the genetic algorithms (GAs).
    • 描述了一种用于检测和识别用于运输流体的管道网络中的障碍物的方法,其中网络由多个管线段(P)和多个路口(N)组成。 该方法包括以下阶段:获取必须评估障碍物的存在的预定数量的管道段(P)的几何数据; 测量一个或多个管道段(P)中的流体的实际流量值(Q1)和网络的一个或多个结(N)处的流体的实际压力值(h1); 所述管道部分(P)的公称直径(D1)与所述管道部分(P)的对应直径(Dieq)的值之间的比较; 通过特定数值模型计算用于所述等效直径(Dieq)的流体的理论流量值(QiT)和压力值(hiT)。 使用=(Dieq)α×Di方法提供了基于有效测量的实际流量(Qi)和压力(hi)值之间的差异使功能最小化的变量向量αi的值的计算阶段,以及相应的理论 流量(QiT)和压力(hiT)值,其中所述计算阶段通过应用遗传算法(GA)的某个自身的适应度函数J(α)来执行。