Carbon Transportation Pipeline Engineering Training Course

Carbon Transportation Pipeline Engineering Training Course

Introduction

Carbon Transportation Pipeline Engineering Training Course is esigned to equip engineers, energy professionals, pipeline operators, and carbon management specialists with the technical knowledge and practical skills required to design, construct, operate, and maintain pipelines for transporting captured carbon dioxide (CO₂). This course explores the fundamentals of carbon dioxide pipeline engineering, including CO₂ phase behavior, fluid thermodynamics, hydraulic modeling, pipeline route selection, material selection, wall thickness calculations, corrosion management, pressure control, and transportation network optimization. Participants will gain insights into high-pressure CO₂ transportation, dense-phase pipeline design, carbon capture infrastructure integration, pipeline integrity management, and engineering standards applicable to large-scale carbon transportation projects.

The training also emphasizes pipeline safety, risk-based inspection, leak detection, fracture control, emergency response planning, environmental protection, and regulatory compliance throughout the carbon transportation lifecycle. The program incorporates emerging industry practices in digital pipeline monitoring, predictive maintenance, computational fluid dynamics (CFD), digital twins, and carbon infrastructure development. By completing this course, participants will be better prepared to contribute to safe, cost-effective, and sustainable CO₂ transportation projects serving industrial facilities, carbon capture hubs, geological storage sites, and integrated CCUS networks.

Course Duration

5 Days

Course Objectives

1. Explain the fundamental principles of CO₂ pipeline transportation engineering and its role in CCUS infrastructure.
2. Evaluate carbon dioxide phase behavior, thermodynamic properties, and pressure-temperature relationships during transportation.
3. Apply hydraulic modeling and pipeline flow simulation techniques to determine transportation capacity and operating requirements.
4. Select appropriate pipeline materials based on CO₂ composition, operating pressure, temperature, and environmental conditions.
5. Perform preliminary pipeline sizing, wall thickness calculations, and pressure-drop assessments.
6. Evaluate CO₂ impurities, dehydration requirements, and their effects on corrosion, phase behavior, and pipeline integrity.
7. Develop effective pipeline routing strategies using technical, environmental, geographical, and economic criteria.
8. Apply relevant ASME pipeline codes, industry standards, and regulatory requirements to CO₂ pipeline engineering projects.
9. Identify pipeline failure mechanisms, including corrosion, fatigue, fracture propagation, and pressure-related damage.
10. Implement risk-based inspection (RBI), pipeline integrity management, and preventive maintenance strategies.
11. Evaluate leak detection technologies, monitoring systems, and emergency isolation procedures for CO₂ pipelines.
12. Integrate digital twins, real-time monitoring, and predictive analytics into carbon transportation operations.
13. Assess the technical, economic, environmental, and safety performance of integrated carbon transportation networks.

Target Audience

1. Pipeline and Pipeline Integrity Engineers.
2. Mechanical, Chemical, and Petroleum Engineers.
3. Process Design and Facilities Engineers.
4. Carbon Capture, Utilization and Storage (CCUS) Professionals.
5. Oil and Gas Transportation and Operations Managers.
6. Project Engineers and Engineering Consultants.
7. Health, Safety, Environment, and Risk Management Professionals.
8. Energy Transition, Carbon Management, and Infrastructure Development Specialists.

Course Modules

Module 1: Fundamentals of Carbon Dioxide Transportation

• Introduction to carbon capture, utilization, and storage (CCUS) value chains.
• Physical and thermodynamic properties of carbon dioxide.
• CO₂ phase diagrams, critical points, and dense-phase transportation.
• Comparison of pipeline, ship, rail, and road-based CO₂ transportation.
• Overview of carbon transportation infrastructure, hubs, and storage networks.
• Case Study: Evaluate the transportation options for captured CO₂ from an industrial facility to a centralized geological storage hub, comparing pipeline capacity, distance, operational requirements, and infrastructure costs.

Module 2: CO₂ Thermodynamics, Fluid Properties, and Impurity Management

• Pressure-temperature relationships and CO₂ phase behavior.
• Effects of water, oxygen, nitrogen, hydrogen, and other impurities.
• CO₂ dehydration, stream conditioning, and composition specifications.
• Phase transitions, hydrate formation risks, and operational stability.
• Thermodynamic property models and engineering simulation tools.
• Case Study: Assess how changes in CO₂ stream composition affect phase stability, dehydration requirements, corrosion risks, and the operating envelope of a proposed transportation pipeline.

Module 3: Pipeline Design, Sizing, and Hydraulic Engineering

• Pipeline diameter selection and transportation capacity calculations.
• Pressure-drop analysis and hydraulic gradient assessment.
• Dense-phase CO₂ flow modeling and operating pressure determination.
• Wall thickness calculations, design factors, and pressure containment.
• Compressor, pump, valve, and pressure-control system selection.
• Case Study: Develop a preliminary pipeline design for transporting captured CO₂ from a cement manufacturing facility to a storage site, comparing alternative pipe diameters, pressure requirements, and hydraulic performance.

Module 4: Pipeline Materials, Corrosion, and Integrity Engineering

• Carbon steel and alternative material selection for CO₂ service.
• Corrosion mechanisms associated with water and impurities.
• Material toughness, fracture resistance, and crack propagation control.
• Welding procedures, fabrication quality, and inspection requirements.
• Pipeline integrity management, corrosion monitoring, and maintenance planning.
• Case Study: Investigate a hypothetical pipeline integrity concern involving elevated water content in a CO₂ stream. Recommend material suitability checks, stream-quality controls, inspection methods, and corrective measures.

Module 5: Pipeline Routing, Construction, and Infrastructure Development

• Pipeline route selection and feasibility assessment.
• Geotechnical surveys, terrain analysis, and right-of-way considerations.
• Environmental and social impact assessment for pipeline corridors.
• Pipeline construction, welding, testing, commissioning, and handover.
• Crossings, isolation valves, pumping facilities, and network integration.
• Case Study: Compare two proposed CO₂ pipeline routes connecting an industrial cluster to a geological storage facility, evaluating terrain, environmental sensitivity, construction complexity, community impacts, and lifecycle costs.

Module 6: Pipeline Safety, Risk Assessment, and Emergency Response

• CO₂ pipeline hazard identification and consequence assessment.
• High-pressure release behavior, dispersion modeling, and exposure risks.
• Quantitative risk assessment (QRA), hazard registers, and risk mitigation.
• Leak detection, remote monitoring, and emergency shutdown systems.
• Emergency response planning, public safety, and incident communication.
• Case Study: Conduct a hypothetical risk assessment for a CO₂ pipeline crossing a populated area. Identify credible release scenarios, assess potential consequences, and propose monitoring, isolation, emergency communication, and mitigation measures.

Module 7: Pipeline Operations, Monitoring, and Digital Technologies

• Pipeline startup, shutdown, pressure management, and operating procedures.
• Supervisory control and data acquisition (SCADA) systems.
• Real-time pressure, temperature, flow, and composition monitoring.
• Digital twins, predictive maintenance, and data-driven anomaly detection.
• Pipeline inspection technologies and performance optimization.
• Case Study: Design a conceptual digital monitoring strategy for a long-distance CO₂ pipeline, specifying key sensors, operating thresholds, anomaly alerts, data integration, and maintenance decision workflows.

Module 8: Regulatory Compliance, Economics, and Integrated CCUS Networks

• Applicable pipeline design standards and jurisdiction-specific regulations.
• Environmental permitting, safety cases, and documentation requirements.
• Capital expenditure (CAPEX) and operating expenditure (OPEX) estimation.
• Transportation tariffs, capacity planning, and economic feasibility analysis.
• Integration of capture facilities, shared pipelines, storage hubs, and net-zero strategies.
• Case Study: Prepare a preliminary feasibility assessment for a shared CO₂ transportation network serving several industrial emitters. Compare capacity scenarios, infrastructure investment, operating costs, regulatory considerations, and long-term network expansion options.

Training Methodology

• Interactive lectures and presentations.
• Group discussions and brainstorming sessions.
• Hands-on exercises using real-world datasets.
• Role-playing and scenario-based simulations.
• Analysis of case studies to bridge theory and practice.
• Peer-to-peer learning and networking.
• Expert-led Q&A sessions.
• Continuous feedback and personalized guidance.

Register as a group from 3 participants for a Discount

Send us an email: info@datastatresearch.org or call +254724527104 

Certification

Upon successful completion of this training, participants will be issued with a globally- recognized certificate.

Tailor-Made Course

 We also offer tailor-made courses based on your needs.

Key Notes

a. The participant must be conversant with English.

b. Upon completion of training the participant will be issued with an Authorized Training Certificate

c. Course duration is flexible and the contents can be modified to fit any number of days.

d. The course fee includes facilitation training materials, 2 coffee breaks, buffet lunch and A Certificate upon successful completion of Training.

e. One-year post-training support Consultation and Coaching provided after the course.

f. Payment should be done at least a week before commence of the training, to DATASTAT CONSULTANCY LTD account, as indicated in the invoice so as to enable us prepare better for you.