Abstract: In some embodiments, the disclosure provide a Coriolis flowmeter with multiple flow tubes, including a flow sensor and a flow transmitter is provided. The flow sensor includes a sensor housing, a sleeve, and two symmetrical flanges. A sensor assembly is arranged in the sensor housing, and the sensor assembly includes at least two flow tube groups, each flow tube group includes at least two flow tubes. Two flow tubes with the same size and geometry in different groups form a flow tube pair. At least two flow tube pairs are provided by at least two flow tube groups, each flow tube pair is fixedly connected together by at least one pair of node plates, a measurement area of the flow tubes is between an innermost pair of node plates, and each flow tube group is connected to a driver and a detector.

Abstract: In some embodiments, the disclosure provide a Coriolis flowmeter with multiple flow tubes, including a flow sensor and a flow transmitter is provided. The flow sensor includes a sensor housing, a sleeve, and two symmetrical flanges. A sensor assembly is arranged in the sensor housing, and the sensor assembly includes at least two flow tube groups, each flow tube group includes at least two flow tubes. Two flow tubes with the same size and geometry in different groups form a flow tube pair. At least two flow tube pairs are provided by at least two flow tube groups, each flow tube pair is fixedly connected together by at least one pair of node plates, a measurement area of the flow tubes is between an innermost pair of node plates, and each flow tube group is connected to a driver and a detector.

Abstract: A Coriolis mass flowmeter having two measuring tubes, wherein two neighboring oscillation node plates are provided on one end of the measuring tube that connect the two measuring tubes to one another and wherein the angle between the planes of both oscillation node plates is determined in such a manner that the vibration of the measuring tubes is minimal up to a predetermined driving force. A method of producing the flowmeter is also disclosed.

Abstract: A Coriolis mass flowmeter having a measuring tube that can be excited to oscillation and a magnet assembly (1) serving to generate oscillations and/or to receive oscillations. The magnet assembly (1) includes at least one permanent magnet (2) and a magnet holder (3) holding the permanent magnet (2). The Coriolis mass flowmeter that has a mounting for the permanent magnet, which can withstand long-term oscillation stress and can reliably protect the permanent magnet is implemented by the magnet holder (3) consisting of nonmagnetic metal such as stainless steel.

Abstract: A Coriolis mass flowmeter having two measuring tubes, wherein two neighboring oscillation node plates are provided on one end of the measuring tube that connect the two measuring tubes to one another and wherein the angle between the planes of both oscillation node plates is determined in such a manner that the vibration of the measuring tubes is minimal up to a predetermined driving force. A method of producing the flowmeter is also disclosed.

Abstract: A Coriolis mass flowmeter has exactly two measuring tubes that can be excited to oscillation and a housing. An end connection plate from a pipe to both measuring tubes is provided on each end of the measuring tube, and these the end connection plates are attached to one another by means of a reinforcing bridge that is separate from the housing.

Abstract: A Coriolis mass flowmeter having a measuring tube that can be excited to oscillation and a magnet assembly (1) serving to generate oscillations and/or to receive oscillations. The magnet assembly (1) includes at least one permanent magnet (2) and a magnet holder (3) holding the permanent magnet (2). The Coriolis mass flowmeter that has a mounting for the permanent magnet, which can withstand long-term oscillation stress and can reliably protect the permanent magnet is implemented by the magnet holder (3) consisting of nonmagnetic metal such as stainless steel.

Abstract: A Coriolis mass flowmeter has a measuring tube that can be excited to oscillation, an oscillation driver and/or an oscillation sensor, wherein the oscillation driver and/or the oscillation sensor has a permanent magnet. The permanent magnet is arranged in a magnet holder so that a sure and simple fixation of the permanent magnet is achieved.

Abstract: A device for measuring the mass rate of flow according to the Coriolis principle, with two measurement tubes at least in one section of which runs in a common plane, and a connector by which the two measurement tubes are connected to one another where they run in a common plane. The connector has a stiffening plate which is parallel to the common plane of the measurement tubes and which is attached to the two measurement tubes. At least one stiffening fin is provided on the stiffening plate so that the bending stiffness of the connector for bending in the common plane of the measurement tubes in which, generally, excitation vibrations of the measurement tubes also take place, is made greater than the torsional stiffness of the connector for torsional vibrations. As a result, the measurement accuracy of the Coriolis mass flow rate measurement device is improved.

Abstract: A mass flow rate measurement device which works according to the coriolis principle, and has two measurement tubes (1) and a vibration converter. It is provided that a carrier (2) is mounted on each of the measurement tubes (1) as a pair of carriers, and the vibration converter is made and arranged such that it acts between the pair carriers (2). In this way, a coriolis mass flow rate measurement device which is simple to produce is attained, with measurement tubes (1) which can be located extremely close to one another.

Abstract: A device for measuring the mass rate of flow according to the Coriolis principle, with two measurement tubes at least in one section of which runs in a common plane, and a connector by which the two measurement tubes are connected to one another where they run in a common plane. The connector has a stiffening plate which is parallel to the common plane of the measurement tubes and which is attached to the two measurement tubes. At least one stiffening fin is provided on the stiffening plate so that the bending stiffness of the connector for bending in the common plane of the measurement tubes in which, generally, excitation vibrations of the measurement tubes also take place, is made greater than the torsional stiffness of the connector for torsional vibrations. As a result, the measurement accuracy of the Coriolis mass flow rate measurement device is improved.

Abstract: A mass flow rate measurement device which works according to the coriolis principle, and has two measurement tubes (1) and a vibration converter. It is provided that a carrier (2) is mounted on each of the measurement tubes (1) as a pair of carriers, and the vibration converter is made and arranged such that it acts between the pair carriers (2). In this way, a coriolis mass flow rate measurement device which is simple to produce is attained, with measurement tubes (1) which can be located extremely close to one another.

Abstract: A mass flowmeter employing the Coriolis principle incorporates in at least one section two measuring tubes that extend along a common plane, as well as a connecting device that connects the two measuring tubes in the section in which they extend along the common plane. The connecting device is designed and positioned in a manner whereby its flexural strength for flections in the common plane of the measuring tubes is greater than its torsional rigidity for torsional oscillations around the connecting line between the two measuring tubes. This achieves good frequency separation between the excitation oscillations generated in the common plane of the measuring tubes and the oscillations of the measuring tubes perpendicular to the former.

Abstract: A Coriolis mass flowmeter includes a measuring tube for carrying a flowing medium, a vibration generator for exciting circumferential vibrations of the measuring tube, a vibration sensor for registering circumferential vibrations of the measuring tube and two mass rings fixed to the measuring tube, the mass rings running circumferentially around the measuring tube and the vibration generator and the vibration sensor being provided between the two mass rings. A cylinder connecting the two mass rings is provided to enable the flowmeter to exhibit a high zero-point stability.

Abstract: A Coriolis mass flow meter incorporates a measuring tube whose wall is of fiber-reinforced polyether ether ketone (PEEK) and has an internal coating of pure polyether ether ketone (PEEK). The measuring tube is corrosion-resistant and has high pressure resistance. A method of manufacturing the measuring tube is also described.

Abstract: A Coriolis mass flowmeter features a measuring tube for guiding a flowing medium an oscillation-generating system with an oscillator for stimulating the oscillation of the measuring tube, and an oscillation-sensing system with an oscillation sensor for capturing the oscillations of the measuring tube. A first companion element is positioned opposite the oscillation-generating system at the same longitudinal distance of the measuring tube and a second companion element is positioned opposite the oscillation-sensing system at the same longitudinal distance on the measuring tube, with the mass of the first companion element corresponding to the mass of the oscillation-generating system and the mass of the second companion element corresponding to the mass of the oscillation-sensing system. The result is a Coriolis mass flowmeter with a high measuring accuracy. A method for producing the flowmeter is also disclosed.

Abstract: A Coriolis mass flowmeter incorporates a measuring tube for guiding a flowing medium, a first oscillator for the oscillatory stimulation of the measuring tube, as well as a first oscillation sensor and a second oscillation sensor for picking up Coriolis oscillations of the measuring tube. The first oscillator, the first oscillation sensor and the second oscillation sensor are mutually spaced apart in the longitudinal direction of the measuring tube and the first oscillator is activated by an oscillation-stimulating control device. A third oscillation sensor is provided and positioned opposite the first oscillator at the same longitudinal distance of the measuring tube. Additionally or alternatively, a second oscillator and a third oscillator may be provided, with the second oscillator positioned opposite the first oscillation sensor and the third oscillator positioned opposite the second oscillation sensor, in each case at the same longitudinal distance on the measuring tube.