Intellects Energy Ltd.

Oil & Gas Fiscal Metering Systems Practical Training Course

 

Course Overview

This intensive 10-day hands-on training program is designed to provide participants with the practical knowledge and technical skills required to specialize in Oil & Gas Fiscal Metering Systems

The course is ensuring progressive learning from basic logic development to complex control applications, networking, and data handling.

Target Audience

This training is ideal for:

  • Instrumentation & Control Engineers
  • Metering Engineers
  • Process Engineers
  • Electrical Engineers
  • Maintenance Personnel
  • Commissioning Engineers
  • Operations Personnel
  • Measurement & Allocation Engineers
  • Beginners with little or no Instrumentation

Prerequisites

  • Basic understanding of physics
  • Familiarity with Windows-based PC operation
  • Prior Instrumentation experience is helpful but not required

Training Objectives

  • Practical Design,
  • Operation,
  • Calibration,
  • Diagnostics & Maintenance

Training Structure

  • Registration Fee: N50,000
  • Advanced Training Fee: N450,000 
  • Duration: 10 Days
  • Mode: Instructor-led 95% Practical & 5% Theory Sessions

Software Tools:

How to apply

  • Send email to training@intellectsenergy.com.
  • Call or send Whatsapp message to 08051203632

DAY 1 – Fundamentals of Fiscal Metering

Module 1: Introduction to Fiscal Measurement

  • Principles of custody transfer
  • Fiscal vs Allocation vs Process metering
  • Importance of measurement uncertainty
  • Fiscal metering in upstream, midstream and downstream
  • Gas and liquid measurement overview

Applicable Standards

  • API MPMS
  • ISO 5167
  • AGA Standards
  • OIML
  • IEC Standards
  • ASTM Standards

Module 2: Fiscal Metering Systems

Components of a complete fiscal metering skid

  • Flow meters
  • Flow computers
  • Pressure transmitters
  • Temperature transmitters
  • Density meters
  • Provers
  • Sampling systems
  • PLC/DCS Interface
  • SCADA Integration

Module 3: Types of Flowmeters

Advantages and limitations of:

  • Orifice Meter
  • Ultrasonic Meter
  • Coriolis Meter
  • Turbine Meter
  • Positive Displacement Meter
  • Venturi Meter
  • Vortex Meter

Practical Session

  • Identification of fiscal metering skid components
  • Reading P&IDs
  • Understanding metering loop drawings
  • Metering skid layout review

DAY 2 – Fiscal Meter Design & Flow Calculations

Module 4: Differential Pressure Flow Measurement

  • Orifice Plate Theory
  • Bernoulli Equation
  • Reynolds Number
  • Beta Ratio
  • Expansion Factor

Module 5: Ultrasonic Metering

  • Transit Time Principle
  • Multi-path ultrasonic meters
  • Installation requirements
  • Diagnostics
  • Error sources

Module 6: Coriolis Metering

  • Mass flow principle
  • Density measurement
  • Temperature compensation
  • Applications in liquid custody transfer

Module 7: Flow Calculations

  • Actual Flow
  • Standard Flow
  • Mass Flow
  • Volume Flow

Introduction to:

  • Compressibility (AGA8)
  • Base Pressure
  • Base Temperature
  • Flow compensation
  • Energy calculations

Practical Workshop

  • Flow calculation exercises
  • Base condition calculations
  • Pressure and temperature compensation

DAY 3 – Flow Computers, PLC/DCS & SCADA Integration

Module 8: Flow Computers

Overview of major manufacturers

  • Emerson ROC
  • Emerson FloBoss
  • ABB
  • Honeywell
  • Schneider
  • OMNI
  • Daniel

Module 9: Flow Computer Configuration

Configuration of:

  • Meter runs
  • Pressure transmitters
  • Temperature transmitters
  • Pulse inputs
  • Analog inputs
  • Alarm settings
  • Event logging

Module 10: Communication Protocols

Industrial communication

  • Modbus RTU
  • Modbus TCP/IP
  • OPC
  • Ethernet/IP
  • HART
  • Foundation Fieldbus

Module 11: PLC/DCS Interface

Integration with

  • PLC
  • DCS
  • SCADA
  • Historian
  • Production database

Practical

  • Configure a flow computer
  • PLC communication demonstration
  • SCADA data acquisition
  • Alarm monitoring

DAY 4 – Calibration, Proving & Meter Verification

Module 12: Meter Calibration

Calibration principles

  • Pressure transmitters
  • Temperature transmitters
  • Density transmitters
  • Flow transmitters

Module 13: Meter Proving

Types of provers

  • Pipe Prover
  • Compact Prover
  • Master Meter
  • Ball Prover

Proving procedures

  • Meter Factor
  • Repeatability
  • Linearity
  • Accuracy verification

Module 14: Measurement Uncertainty

Sources of uncertainty

  • Instrument accuracy
  • Installation effects
  • Process conditions
  • Calibration errors
  • Flow profile

Uncertainty calculations

Module 15: Diagnostics

Common faults

  • Flow instability
  • Signal loss
  • Incorrect density
  • Pressure transmitter drift
  • Temperature sensor failure
  • Pulse loss
  • Communication failures

Practical Session

  • Calibration demonstration
  • Meter proving example
  • Error analysis
  • Diagnostic exercises

DAY 5 – Advanced Fiscal Metering, Troubleshooting & Best Practices

Module 16: Fiscal Metering Skid Design

Design considerations

  • Redundancy
  • Pressure loss
  • Straight pipe requirements
  • Filter sizing
  • Control valves
  • Sampling systems

Module 17: Maintenance

Preventive Maintenance

Predictive Maintenance

Condition Monitoring

Inspection routines

Documentation

Module 18: Troubleshooting Workshop

Real oil & gas case studies

  • Ultrasonic meter failures
  • Orifice plate damage
  • Coriolis vibration issues
  • Incorrect gas composition
  • Pressure compensation errors
  • Flow computer failures
  • SCADA communication faults

Module 19: Emerging Technologies

  • Digital Fiscal Metering
  • Smart Flow Computers
  • Industrial IoT
  • Cloud-based Monitoring
  • Cybersecurity for Metering Systems
  • Digital Twins
  • Predictive Analytics
  • AI-assisted diagnostics

Final Practical Assessment

Participants will work in teams to:

  • Review a complete fiscal metering skid
  • Verify instrument installation
  • Configure a flow computer
  • Perform flow calculations
  • Diagnose measurement errors
  • Validate meter proving results
  • Integrate the system with PLC/DCS and SCADA
  • Prepare a fiscal metering performance report

Learning Outcomes

By the end of the course, participants will be able to:

  • Explain fiscal metering principles and custody transfer requirements.
  • Select the appropriate flow meter for oil and gas applications.
  • Interpret P&IDs, loop diagrams, and fiscal metering skid drawings.
  • Configure and troubleshoot flow computers.
  • Apply API, AGA, ISO, and IEC standards to fiscal measurement systems.
  • Perform pressure, temperature, density, and compressibility compensation.
  • Conduct meter calibration, proving, and verification activities.
  • Integrate fiscal metering systems with PLCs, DCS, SCADA, and historians using industrial communication protocols.
  • Analyze measurement uncertainty and improve metering accuracy.
  • Troubleshoot common faults and implement preventive maintenance strategies.

Recommended Hands-On Equipment

  • Ultrasonic gas flow meter
  • Coriolis mass flow meter
  • Turbine flow meter
  • Orifice meter run with differential pressure transmitter
  • Flow computer (e.g., Emerson ROC/FloBoss or equivalent)
  • Pressure and temperature calibrators
  • HART communicator
  • PLC training rack (e.g., Allen-Bradley or Siemens)
  • SCADA workstation
  • Meter proving simulator or demonstration unit
  • Calibration software and engineering workstation

This curriculum provides a balanced progression from foundational concepts to advanced fiscal metering design, operation, calibration, and integration, making it suitable for personnel working in upstream, midstream, LNG, gas processing, refinery, and pipeline custody transfer applications.

Day 6 to Day 10: 

  • Self practice at our facility with hardware and software

Training Materials & Deliverables

  • Comprehensive training manual (soft + hard copy)
  • Practical lab exercises and example programs
  • Course slides and reference documents
  • Certificate of Completion
  • Post-training technical support (optional)

Training Methodology

  • Instructor-led presentations
  • Hands-on programming sessions using actual PLCs or simulators
  • Real-world case studies and troubleshooting
  • Progressive assessments to reinforce learning outcomes

Duration & Schedule

  • Total Duration: 10 Days (Monday–Friday, 2 weeks) 
  • Daily Schedule: 9:00 AM – 4:00 PM
  • Format: Onsite 

Certification

Participants who complete both modules and pass the final project assessment will receive a Certificate of Proficiency in Industrial Process Instrumentation issued by Intellects Energy Ltd