Micromotion Gmbh

Marc Allan Buttler

Andrew Timothy Patten

Charles Paul Stack

Paul J Hays

Graeme Ralph Duffill

Justin Craig Hollingsworth

Jason Alan Leapley

Joe J Longo

Julie Gniffke

Robert J De Boom

James S Deacy

A meter electronics () for detecting an orientation and compensating a measurement based on the detected orientation is provided. The meter electronics () comprises an interface () configured to communicatively couple to a sensor assembly () and a processing system (). The processing system () is configured to detect an orientation of the sensor assembly () based on one or more sensor signals provided by the sensor assembly ().

Detecting an orientation of a vibratory meter and compensating a measurement based on the detected orientation

A method for correcting a flow variable () based on an inner pressure inside a Coriolis flow meter () comprises the steps of receiving a first outside pressure () measured with a first pressure sensor () located in a first process conduit () positioned on a first end () of the Coriolis flow meter (), determining a second outside pressure () in a second process conduit () positioned on a second end () opposing the first end () of the Coriolis flow meter (), determining an estimated inner flow meter pressure () based on the first outside pressure () and the second outside pressure (), receiving the flow variable (), and generating a corrected flow variable () based on the estimated inner flow meter pressure (), a pressure compensation factor (), and the flow variable ().

Method of correcting flow meter variable

A method of converting a directly measured mass flow rate to account for buoyancy is provided. The method includes directly measuring a mass flow rate of a material, measuring a density of the material, and using the measured density of the material to convert the directly measured mass flow rate into a mass value including a buoyancy of a fluid.

Converting a directly measured mass flow rate to account for buoyancy

Methods for operating a flowmeter diagnostic tool are provided that comprise interfacing the diagnostic tool with a flowmeter () sensor assembly (). A base prover volume (BPV), a desired number of passes per run, and/or a maximum number of allowed runs may be input into the diagnostic tool. Flowmeter data is received. An estimated total prove time (TPT) necessary to pass a predetermined repeatability requirement, an estimated minimum number of runs needed to achieve the calculated TPT, and/or an estimated minimum BPV may be calculated.

Method of determining total prove time

Methods for operating a flowmeter diagnostic tool are provided that comprise interfacing the diagnostic tool with a flowmeter () sensor assembly (). A base prover volume (BPV), a desired number of passes per run, and/or a maximum number of allowed runs may be input into the diagnostic tool. Flowmeter data is received. An estimated total prove time (TPT) necessary to pass a predetermined repeatability requirement, an estimated minimum number of runs needed to achieve the calculated TPT, and/or an estimated minimum BPV may be calculated. A standard deviation of the flowmeter sensor assembly flow rate (&#x3c3;) is calculated, and the number of samples used to calculate a is determined. A meter-specific factor (MSF) is calculated.

A method of determining vapor pressure of a fluid is provided. The method includes the steps of providing a meter () having meter electronics (), the meter () being at least one of a flowmeter and a densitometer, and flowing a process fluid through the meter (). A pressure of the process fluid is measured. The pressure of the process fluid is adjusted until a monophasic/biphasic boundary is reached. The flowing vapor pressure of the process fluid is determined at the monophasic/biphasic boundary.

Flowing vapor pressure apparatus and related method

A system for calculating a flow rate of a flow meter using multiple modes is provided according to an embodiment of the invention. The system for calculating a flow rate of a flow meter using multiple modes comprises a means for calibrating the flow meter for a number of desired modes. The system for calculating a flow rate of a flow meter using multiple modes includes a means for determining a density of a material flowing through the flow meter associated with each mode. The system for calculating a flow rate of a flow meter using multiple modes further includes a means for determining the flow rate effect on density for each desired mode. The system for calculating a flow rate of a flow meter using multiple modes a means for calculating a flow rate based on the density and flow rate effect on density values for each desired mode.

Diagnostic apparatus and methods for a coriolis flow meter

A method of delivering propane to a customer is disclosed. A transport vehicle transports the propane to the customer. The transport vehicle delivers the propane from the transport vehicle to the customer. A Coriolis flowmeter measures a mass flow rate of the propane as transport vehicle delivers the propane to the customer. The Coriolis flowmeter determines a gross volume of the propane based on the mass flow rate of the propane. The Coriolis flowmeter also determines an adjusted volume of the propane based on the mass flow rate and a constant value. The constant value corresponds to a density of propane at a reference temperature.

Propane measurement using a coriolis flowmeter

A flow meter calibration system uses a plurality of Coriolis effect mass flow meters formed in two arrays to calibrate a meter under test. The system adjusts flow rates to optimum levels for certainty of measurement and performs a statistical analysis permitting the system to be used even in the calibration of other Coriolis flowmeters.

Flowmeter calibration system with statistical optimization technique

A Coriolis effect densimeter which produces density output data of improved accuracy by embodying the principal that the natural frequency of a vibrating tube filled with material decreases with an increase in the material mass flow rate. High accuracy output data is achieved by measuring the density and the mass flow rate of material through the vibrating tube, correcting the measured density to compensate for the effect of the mass flow rate, and correcting the mass flow rate correction of the density measurement for changes due to temperature.

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Estes Park, CO, United States of America

Marc Allan Buttler