Vortex shedding flow meters are commonly used in various industries for measuring the flow rate of liquids and gases. Here’s a process flow tailored to vortex shedding flow meters:

1. Define Measurement Requirements: Identify the specific parameters that need to be measured, such as flow rate, fluid type (liquid or gas), temperature, pressure, viscosity, and accuracy requirements. Understand the process conditions and constraints to select the appropriate vortex shedding flow meter model.

2. Select the Vortex Shedding Flow Meter: Choose a vortex shedding flow meter that suits the application requirements, considering factors such as:

   • Flow rate range and turndown ratio
   • Fluid characteristics (viscosity, density, temperature, etc.)
   • Pipe size and material
   • Pressure and temperature ratings
   • Installation constraints and environmental conditions

3. Sizing and Design: Determine the appropriate size and design of the vortex shedding flow meter based on the expected flow rates, fluid properties, and process conditions. Consider factors such as the flow profile, pipe diameter, and installation requirements to ensure accurate measurement and minimal disruption to flow.

4. Installation Planning: Plan the installation of the vortex shedding flow meter to optimize performance and accuracy. Consider factors such as:

   • Proper location along the pipeline (typically installed vertically or horizontally)
   • Orientation and mounting position to minimize installation errors and ensure proper alignment
   • Proper inlet and outlet configurations to ensure a stable flow profile and prevent turbulence
   • Adequate support and bracing to prevent stress on the meter and piping

5. Installation and Calibration: Install the vortex shedding flow meter according to the manufacturer’s guidelines and industry standards. Ensure proper alignment, sealing, and support to minimize installation errors and ensure accurate measurement. Calibrate the flow meter using a traceable calibration standard to establish accurate measurement.

6. Commissioning: Test the vortex shedding flow meter under normal operating conditions to verify its performance and accuracy. Check for any leaks, obstructions, or other issues that may affect measurement. Adjust settings and configurations as needed to optimize performance.

7. Integration with Control System: Integrate the vortex shedding flow meter with the control system or data acquisition system if required. Establish communication protocols for real-time monitoring and data logging. Configure alarms and setpoints for process control and safety.

8. Operation and Monitoring: Regularly monitor the vortex shedding flow meter’s performance during operation to ensure accurate and reliable measurement. Check for any signs of wear, fouling, or drift that may require maintenance or recalibration. Maintain proper operating conditions, including fluid temperature and pressure, to optimize performance.

9. Maintenance: Develop a maintenance schedule for the vortex shedding flow meter to prevent issues and ensure long-term reliability. Perform routine maintenance tasks such as cleaning, inspection, and verification of calibration. Replace worn or damaged components as needed to maintain accuracy and performance.

10. Troubleshooting: Establish procedures for troubleshooting common issues with vortex shedding flow meters, such as flow disturbances, sensor fouling, or improper installation. Train personnel on how to identify and resolve problems effectively to minimize downtime and ensure continuous operation.