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    • 2. 发明授权
    • Measuring transducer of vibration-type as well as method for its manufacture
    • 振动型测量传感器及其制造方法
    • US08826744B2
    • 2014-09-09
    • US13433880
    • 2012-03-29
    • Alfred RiederWolfgang DrahmMichael WiesmannChristof HuberMartin Anklin
    • Alfred RiederWolfgang DrahmMichael WiesmannChristof HuberMartin Anklin
    • G01F1/84
    • G01F1/8413G01F1/8404G01F1/8477
    • A measuring transducer comprises a housing, and a tube arrangement formed by means of at least two tubes extending within the housing. At least one tube is embodied as a measuring tube serving for conveying flowing medium and another tube is mechanically connected with the tube by means of a coupling element to form an inlet-side coupling zone and by means of a coupling element. The coupling element is arranged equally far removed from the housing end. One coupling element has, about an imaginary longitudinal axis of the tube arrangement imaginarily connecting a center of mass of the coupling element and a center of mass of the other coupling element, with an angle of intersection equal to that with the other coupling element, a bending stiffness, which deviates from a bending stiffness of the other coupling element about said imaginary longitudinal axis of the tube arrangement.
    • 测量换能器包括壳体和通过在壳体内延伸的至少两个管形成的管装置。 至少一个管被实施为用于输送流动介质的测量管,并且另一个管通过联接元件与管机械连接以形成入口侧连接区域并且借助于联接元件。 联接元件被布置成与壳体端部同样远的位置。 一个耦合元件具有大致绕管结构的假想纵向轴线,其假想连接耦合元件的质心和另一个耦合元件的质心,其交叉角等于与另一耦合元件的重合角, 弯曲刚度偏离另一耦合元件围绕管装置的假想纵向轴线的弯曲刚度。
    • 3. 发明授权
    • Measuring transducer of vibration-type, as well as an in-line measuring device having such a measuring transducer
    • 振动型测量传感器,以及具有这种测量传感器的在线测量装置
    • US08347736B2
    • 2013-01-08
    • US12659532
    • 2010-03-11
    • Ennio BittoAlfred RiederMartin AnklinChristof Huber
    • Ennio BittoAlfred RiederMartin AnklinChristof Huber
    • G01F1/84
    • G01F1/8495G01F1/8409G01F1/8413G01F1/8431G01F1/8436G01F15/024G01N11/16
    • A measuring transducer serves for registering at least one physical, measured variable of a flowable medium guided in a pipeline and/or for producing Coriolis forces serving for registering a mass flow rate of a flowable medium guided in a pipeline. The measuring transducer comprises: a transducer housing; four, straight, measuring tubes connected to flow dividers for guiding flowing medium along flow paths. Each of the four measuring tubes opens with an inlet-side, measuring tube end into one the flow openings of an inlet-side, flow divider and with an outlet-side, measuring tube end into one of the flow openings. An electromechanical exciter mechanism for producing and/or maintaining mechanical oscillations of the four measuring tubes. The exciter mechanism is embodied in such a manner, that, the measuring tubes are excitable pairwise to execute opposite phase bending oscillations in, in each case, a shared imaginary plane of oscillation. The measuring transducer is suitable, especially, for measuring a density and/or a mass flow rate of a medium flowing in a pipeline, at least at times, with a mass flow rate of more than 2200 t/h.
    • 测量传感器用于记录在管道中引导的可流动介质的至少一个物理测量变量和/或用于产生用于记录在管道中引导的可流动介质的质量流量的科里奥利力。 测量传感器包括:换能器壳体; 四个直的测量管连接到分流器,用于沿流动路径引导流动介质。 四个测量管中的每一个打开,入口侧,测量管端部分为入口侧,分流器的流动开口和出口侧,测量管端部到一个流动开口中。 一种用于产生和/或保持四个测量管的机械振荡的机电激励器机构。 励磁机构以这样的方式实现,即,测量管成对地激发,以在每种情况下执行相位相位弯曲振荡,共振的摆动平面。 测量传感器特别适用于至少有时以质量流量大于2200t / h测量在管道中流动的介质的密度和/或质量流量。
    • 4. 发明申请
    • Measuring transducer of vibration-type, as well as an in-line measuring device having such a measuring transducer
    • US20100242624A1
    • 2010-09-30
    • US12659532
    • 2010-03-11
    • Ennio BittoAlfred RiederMartin AnklinChristof Huber
    • Ennio BittoAlfred RiederMartin AnklinChristof Huber
    • G01F1/84
    • G01F1/8495G01F1/8409G01F1/8413G01F1/8431G01F1/8436G01F15/024G01N11/16
    • The measuring transducer serves for registering at least one physical, measured variable of a flowable medium guided in a pipeline and/or for producing Coriolis forces serving for registering a mass flow rate of a flowable medium guided in a pipeline. For such purpose, the measuring transducer comprises: A transducer housing (71), of which an inlet-side, housing end is formed by means of an inlet-side, flow divider (201) having exactly four flow openings (201A, 201B, 201C, 201D) spaced, in each case, from one another and an outlet-side, housing end is formed by means of an outlet-side, flow divider (202) having exactly four flow openings (202A, 202B, 202C, 202D) spaced, in each case, from one another; as well as exactly four, straight, measuring tubes (181, 182, 183, 184) connected to the flow dividers (201, 202) for guiding flowing medium along flow paths connected in parallel. Each of the four measuring tubes opens with an inlet-side, measuring tube end into one the flow openings (201A, 201B, 201C, 201D) of the inlet-side, flow divider (201) and with an outlet-side, measuring tube end into one the flow openings (202A, 202B, 202C, 202D) of the outlet-side, flow divider (202). Additionally, the measuring transducer includes an electromechanical exciter mechanism (5) for producing and/or maintaining mechanical oscillations of the four measuring tubes (181, 182, 183, 184), wherein the exciter mechanism is embodied in such a manner, that, therewith, the measuring tubes are excitable pairwise to execute opposite phase bending oscillations in, in each case, a shared imaginary plane of oscillation (XZ1, XZ2). The measuring transducer of the invention is suitable, especially, for measuring a density and/or a mass flow rate of a medium flowing in a pipeline, at least at times, with a mass flow rate of more than 2200 t/h.
    • 5. 发明申请
    • Measuring system for media flowing in a pipeline
    • US20100242623A1
    • 2010-09-30
    • US12659534
    • 2010-03-11
    • Ennio BittoAlfred RiederMartin AnklinChristof HuberMichael Kirst
    • Ennio BittoAlfred RiederMartin AnklinChristof HuberMichael Kirst
    • G01F1/84
    • G01F1/8495G01F1/8409G01F1/8413G01F1/8431G01F1/8436G01F15/024G01N11/16
    • The measuring system of the invention comprises: A measuring transducer of vibration-type, through which medium flows during operation and which serves for producing oscillatory signals dependent on a viscosity of the flowing medium and/or a Reynolds number of the flowing medium; as well as a transmitter electronics electrically coupled with the measuring transducer for driven the measuring transducer and for evaluating oscillatory signals delivered by the measuring transducer. The measuring transducer includes: An inlet-side flow divider (201) with four, mutually spaced, flow openings (201A, 201B, 201C, 201D); an outlet-side flow divider (202) with four, mutually spaced, flow openings (202A, 202B, 202C, 202D); four, mutually parallel, straight, measuring tubes (181, 182, 183, 184) for conveying flowing medium, connected to the flow dividers (201, 202) for forming a tube arrangement having at least four flow paths for parallel flow; as well as an electromechanical exciter mechanism (4) for exciting and maintaining mechanical oscillations of the measuring tubes (181, 182). Each of the four measuring tubes opens with an inlet-side measuring tube end into a flow opening (201A) of the inlet-side flow divider (201) and with an outlet-side, second measuring tube end into a flow opening (202A) of the outlet-side flow divider (202), a third measuring tube opens with an inlet-side measuring tube end into a flow opening (201C) of the inlet-side flow divider (201) and with an outlet-side, second measuring tube end into a flow opening (202C) of the outlet-side flow divider (202) and a fourth measuring tube opens with an inlet-side measuring tube end into a flow opening (201D) of the inlet-side flow divider (201) and with an outlet-side, second measuring tube end into a flow opening (202D) of the outlet-side flow divider (202). The transmitter electronics feeds, by means of an electrical driver signal supplied to the exciter mechanism, electrical excitation power into the exciter mechanism, while the exciter mechanism converts electrical excitation power at least partially into torsional oscillations of the first measuring tube (181), opposite-equal torsional oscillations of the second measuring tube (182), as well as into torsional oscillations of the third measuring tube (183), opposite-equal torsional oscillations of the fourth measuring tube (184).
    • 6. 发明申请
    • Measuring system for media flowing in a pipeline
    • 在管道中流动的介质的测量系统
    • US20100251830A1
    • 2010-10-07
    • US12659535
    • 2010-03-11
    • Ennio BittoAlfred RiederMartin Anklin-ImhofChristof HuberMichael Kirst
    • Ennio BittoAlfred RiederMartin Anklin-ImhofChristof HuberMichael Kirst
    • G01F1/84
    • G01F1/8495G01F1/8409G01F1/8413G01F1/8431G01F1/8436G01F15/024G01N11/16
    • The measuring system of the invention comprises: A measuring transducer of vibration-type, through which medium flows during operation and which serves for producing oscillatory signals dependent on a viscosity of the flowing medium and/or a Reynolds number of the flowing medium; as well as a transmitter electronics electrically coupled with the measuring transducer for driven the measuring transducer and for evaluating oscillatory signals delivered by the measuring transducer. The measuring transducer includes: An inlet-side flow divider (201) having at least two, mutually spaced, flow openings (201A, 201B); an outlet-side flow divider (202) having at least two, mutually spaced, flow openings (202A, 202B); at least two, mutually parallel, straight, measuring tubes (181, 182) for conveying flowing medium, connected to the flow dividers (201, 202) for forming a tube arrangement having at least two flow paths for parallel flow; as well as an electromechanical exciter mechanism (4) for exciting and maintaining mechanical oscillations of the at least two measuring tubes (181, 182). Each of the at least two measuring tubes opens with an inlet-side measuring tube end into a flow opening (201A) of the inlet-side flow divider (201) and with an outlet-side, second measuring tube end into a flow opening (202A) of the outlet-side flow divider (202). The transmitter electronics feeds, by means of an electrical driver signal supplied to the exciter mechanism, electrical excitation power into the exciter mechanism, while the exciter mechanism converts electrical excitation power at least partially into opposite-equal torsional oscillations of the at least two measuring tubes (181, 182).
    • 本发明的测量系统包括:振动型测量传感器,介质在操作期间流动,用于产生取决于流动介质的粘度和/或流动介质的雷诺数的振荡信号; 以及与用于驱动测量换能器的测量换能器电耦合并用于评估由测量换能器传递的振荡信号的发射器电子装置。 测量传感器包括:具有至少两个相互间隔开的流动开口(201A,201B)的入口侧分流器(201); 具有至少两个相互间隔开的流动开口(202A,202B)的出口侧分流器(202); 至少两个相互平行的直的测量管(181,182),用于输送连接到分流器(201,202)的流动介质,用于形成具有用于平行流动的至少两个流动路径的管装置; 以及用于激发和保持所述至少两个测量管(181,182)的机械振荡的机电激励机构(4)。 所述至少两个测量管中的每个测量管打开,入口侧测量管端部进入入口侧分流器(201)的流动开口(201A),并且出口侧,第二测量管端部进入流动开口 202A)的出口侧分流器(202)。 发射机电子装置通过提供给激励机构的电驱动器信号将电激励功率馈送到激励机构中,同时激励机构将电激励功率至少部分地转换成至少两个测量管的相等的扭转振荡 (181,182)。
    • 9. 发明申请
    • Measuring transducer of vibration-type, as well as an in-line measuring device having such a measuring transducer
    • US20110146416A1
    • 2011-06-23
    • US12659531
    • 2010-03-11
    • Ennio BittoAlfred RiederMartin AnklinChristof Huber
    • Ennio BittoAlfred RiederMartin AnklinChristof Huber
    • G01F1/84
    • G01F1/8495G01F1/8409G01F1/8413G01F1/8431G01F1/8436G01F15/024G01N11/16
    • The measuring transducer serves for registering at least one physical, measured variable of a flowable medium guided in a pipeline and/or for producing Coriolis forces serving for registering a mass flow rate of a flowable medium guided in a pipeline. For such purpose, the measuring transducer comprises: A transducer housing (71), of which an inlet-side, housing end is formed by means of an inlet-side, flow divider (201) having exactly four flow openings (201A, 201B, 201C, 201D) spaced, in each case, from one another and an outlet-side, housing end is formed by means of an outlet-side, flow divider (202) having exactly four flow openings (202A, 202B, 202C, 202D) spaced, in each case, from one another; as well as exactly four, straight, measuring tubes (181, 182, 183, 184) connected to the flow dividers (201, 202) for guiding flowing medium along flow paths connected in parallel. Each of the four measuring tubes opens with an inlet-side, measuring tube end into one the flow openings (201A, 201B, 201C, 201D) of the inlet-side, flow divider (201) and with an outlet-side, measuring tube end into one the flow openings (202A, 202B, 202C, 202D) of the outlet-side, flow divider (202). Additionally, the measuring transducer includes an electromechanical exciter mechanism (5) for producing and/or maintaining mechanical oscillations of the four measuring tubes (181, 182, 183, 184), wherein the exciter mechanism is embodied in such a manner, that, therewith, the measuring tubes are excitable pairwise to execute opposite phase bending oscillations in, in each case, a shared imaginary plane of oscillation (XZ1, XZ2). The measuring transducer of the invention is suitable, especially, for measuring a density and/or a mass flow rate of a medium flowing in a pipeline, at least at times, with a mass flow rate of more than 2200 t/h.