Abstract: A case (330) for a vibrating meter (300) is provided. The case (330) includes a first panel (331a) defined by at least a first edge (333) and a second edge (334). The case (330) also includes one or more indentations (332) formed in the first panel (331a). The one or more indentations (332) include at least a portion extending from the first edge (333) to the second edge (334). The resonant frequencies of the case can be increased and separated from the intended drive frequencies of the fluid conduits (306A, 306B).

Abstract: A case (330) for a vibrating meter (300) is provided. The case (330) includes a first panel (331a) defined by at least a first edge (333) and a second edge (334). The case (330) also includes one or more indentations (332) formed in the first panel (331a). The one or more indentations (332) include at least a portion extending from the first edge (333) to the second edge (334). The resonant frequencies of the case can be increased and separated from the intended drive frequencies of the fluid conduits (306A, 306B).

Abstract: The present invention relates to a feedthru (210, 210?) provided with a ceramic based coating (260) and a method of providing a feedthru (210, 210?) with a ceramic based coating (260). The feedthru (210, 210?) includes at least one conductive pin (220) that extends through a header (217) and includes an exposed first end (221) and an exposed second end (222) spaced by an insulated portion (224). The at least one conductive pin (220) connects a first conductive element (121) connected with a first electrical device (300, 300a, 300b, 104, 105, 105?) and a second conductive element (121?) connected with another electrical device (20, 301), whereby the exposed first end (221) connects to the first conductive element (121) and the exposed second end (221) connects to the second conductive element (121?).

Abstract: The present invention relates to a feedthru (210, 210?) provided with a ceramic based coating (260) and a method of providing a feedthru (210, 210?) with a ceramic based coating (260). The feedthru (210, 210?) includes at least one conductive pin (220) that extends through a header (217) and includes an exposed first end (221) and an exposed second end (222) spaced by an insulated portion (224). The at least one conductive pin (220) connects a first conductive element (121) connected with a first electrical device (300, 300a, 300b, 104, 105, 105?) and a second conductive element (121?) connected with another electrical device (20, 301), whereby the exposed first end (221) connects to the first conductive element (121) and the exposed second end (221) connects to the second conductive element (121?).

Abstract: A method for validating a flow calibration factor of a flow meter is provided according to an embodiment of the invention. The method for validating a flow calibration factor of a flow meter includes determining an initial flexural stiffness of a component of the flow meter. The method for validating a flow calibration factor of a flow meter includes determining a current flexural stiffness of the component. The method for validating a flow calibration factor of a flow meter further includes comparing the initial flexural stiffness to the current flexural stiffness. The method for validating a flow calibration factor of a flow meter further includes detecting a calibration error condition responsive to comparing the initial flexural stiffness to the current flexural stiffness.

Abstract: A Coriolis flowmeter sensor capable of handling large mass flow rates and having a reduced flag dimension. In order to have a reduced flag dimension, each of the flow tubes forms a semicircle between an inlet and an outlet. Brace bars, connected to the flow tubes proximate the inlet and outlet, separate the frequencies of vibration in the flow tubes. Pick-offs are positioned on the flow tubes at a position that allows the pickoffs to maximize detection of low amplitude, high frequency vibrations of the flow tubes required to have a reduced flag dimension.

Abstract: A Coriolis flowmeter sensor capable of handling large mass flow rates and having a reduced flag dimension. In order to have a reduced flag dimension, the flow tubes are formed to have a substantially semicircular arc between an inlet and an outlet. Brace bars connected to the flow tube proximate, the inlet and outlet, separate the frequencies of vibration in the flow tubes. Pick-off sensors are positioned upon the substantially semicircular arc of the flow tube at a position that allow the sensors to maximize detection of low amplitude, high frequency vibrations of the flow tubes required to have a reduced flag dimension.

Abstract: A Coriolis flowmeter sensor having a reduced flag dimension. In order to have a reduced flag dimension, the entire length of the flow tubes must vibrate to make the flowmeter sensor more sensitive to Coriolis effects. When the entire length of the flow tubes vibrate, a first set of brace bars connected to the flow tube separates the frequencies of vibration in the flow tubes. A second set of brace bars connected to the flow tubes enhances the zero stability of the flowmeter.