Deepwater Drilling Riser and Flowline Engineering Certification

Why Select this Training Course?

As the quest for hydrocarbon resources presses into ever more challenging environments, the engineering of drilling risers and flowlines for deepwater applications has become a field requiring specialised knowledge and skill. This training course is specifically designed to address the complexities and technological advancements necessary for the safe and efficient development of these critical subsea components.

How does the course tackle deepwater drilling tech?

Responding to the escalating need for specialised skills, this course builds competencies in engineering and design principles, focused on how they are adapted to the pressures, stresses, and environmental considerations of deep-water environments. You will learn to navigate through challenges with innovation, supported by case studies and the wisdom of industry experts.

What risk management strategies are taught?

Risk management is pivotal in deepwater operations due to the high-cost stakes and safety implications. The training rigorously explores risk assessment frameworks, reliability analysis, and the development of contingency plans. By mastering these strategies, you will be equipped to anticipate and mitigate potential risks in deepwater drilling riser and flowline projects.

Who Should Attend?

Participants will typically be:

• Subsea and marine engineers engaged in deepwater operations.
• Project managers responsible for offshore drilling projects.
• R&D engineers developing new technologies for deepwater applications.
• Quality and safety personnel overseeing subsea engineering processes.
• Technical advisors evaluating deepwater equipment and designs.

What are the Course Objectives?

Course graduates will be able to:

• Design, analyse, and select appropriate drilling risers and flowline systems for deepwater operations.
• Understand and apply the latest technological innovations in the field.
• Develop strategies to anticipate and manage the risks associated with deepwater drilling.
• Ensure compliance with global standards and address environmental challenges.

How will this course be presented?

The course will make use of:

• Presentations covering theoretical knowledge and applied technologies.
• Case studies exploring real-world challenges and solutions.
• Practical workshops to reinforce the academic learning with hands-on experience.
• Discussion panels for insights from industry-leading professionals.
• Simulation software to model subsea systems and predict operational challenges.

What are the Topics Covered in this Course?

Module 1: Subsea Production Systems

• Integration of drilling risers and flowlines with subsea production systems.
• Subsea pumping and compression systems advancements.
• Challenges in the design and operation of subsea manifolds and templates.

Module 2: Drilling Riser Design and Analysis

• Design parameters for deepwater drilling risers.
• Failure modes and effects critical to riser integrity.
• Analysis of stress and fatigue in drilling riser components.
• Risk-based assessment and inspection regimes.
• Hydrodynamic behaviour and modelling for riser design.
• Advanced fabrication and assembly techniques for riser systems.

Module 3: Flowline Engineering and Construction

• Selection criteria for flowline materials in deepwater environments.
• Analysis of thermal and hydraulic operation conditions.
• Flow assurance management strategies for uninterrupted production.
• Installation methods for deepwater flowlines.
• Soil interaction and embedment considerations.
• Use of flexible flowlines and risers in dynamic environments.
• Subsea tie-in technology advancements.
• Field layout and integration with subsea architectures.
• Design approaches for expansion and contraction in flowlines.
• Approaches to corrosion prevention and life extension.
• Leak detection systems and remote monitoring technologies.
• Environmental impact considerations in flowline deployment.
• Pressure testing and pre-commissioning of subsea flowlines.

Module 4: Deepwater Riser Systems and Equipment

• Types of riser systems for deepwater drilling (e.g., SCR, TTR).
• Subsea wellhead and BOP interfaces.
• Riser tensioning systems and heave compensation technologies.
• Connectors and couplings specific to deepwater operations.
• Selection and operation of riser handling equipment.
• High-pressure fluid transfer systems and emergency disconnection.
• Subsea control systems integration with riser technology.
• Maintenance protocols and end-of-life considerations for riser systems.

Module 5: Project Management of Deepwater Operations

• Project life cycle of deepwater drilling riser and flowline projects.
• Cost estimation and control in a high-risk environment.
• Scheduling strategies for deepwater projects.
• Stakeholder engagement and communication in project environments.
• Best practice principles for procurement and logistics.

Module 6: Environmental and Regulatory Compliance

• Environmental impact assessments for deepwater drilling projects.
• Adherence to international and regional regulatory standards.
• Strategies for achieving and maintaining compliance.
• Sustainable practices in deepwater drilling operations.
• Waste management and emissions control for subsea projects.

Module 7: Reliability and Risk Management for Riser and Flowline Operations

• Reliability engineering fundamentals in subsea environments.
• Risk assessment and mitigation strategies for deepwater systems.
• Frameworks for risk identification and safety assurance layers.
• Failure Mode, Effects, and Criticality Analysis (FMECA) in deepwater contexts.
• Application of real-time monitoring systems for risk management.
• Quantitative risk analysis and probabilistic safety assessment techniques.

Module 8: Deepwater Installation and Intervention Techniques

• Vessel selection criteria for deepwater riser and flowline installation.
• ROV (Remote Operated Vehicle) support and intervention capabilities.
• Deepwater deployment strategies for subsea hardware.
• Challenges and solutions in deepwater lifting and handling.
• Use of simulation in planning offshore operations.
• Subsea installation tooling and control systems.
• Innovations in pipeline repair and maintenance technologies.

Module 9: Advanced Technologies in Deepwater Engineering

• Computational fluid dynamics (CFD) in riser and flowline design.
• Utilisation of augmented reality (AR) for installation and maintenance planning.
• Robotics and autonomous systems in deepwater operations.
• Adoption of digital twins for lifecycle management of subsea assets.
• Subsea processing and boosting systems.
• Employing artificial intelligence for predictive maintenance.
• Bespoke software tools for deepwater operation optimisation.

Module 10: Research, Development, and Future Trends

• Upcoming materials and technologies reshaping deepwater engineering.
• Research areas promising significant advancements in riser and flowline systems.
• Future trends in the global oil and gas market impacting subsea engineering.
• Long-term sustainability and decommissioning in deepwater drilling operations.

Module 11: Subsea Structural Analysis

• Dynamic behaviour analysis of subsea structures.
• Finite element analysis application in design reinforcement.
• Fatigue assessment procedures for long-term durability.

Module 12: Emergency Response and Contingency Planning

• Advanced blowout prevention and well control for deepwater wells.
• Innovations in emergency disconnection systems for risers and flowlines.
• Development of emergency response strategies and incident management.

Module 13: Asset Integrity and Life-cycle Management

• Inspection, maintenance, and repair (IMR) strategies for deepwater assets.
• Role of asset integrity management systems (AIMS) in maximizing asset life.
• Techniques for life extension of ageing subsea infrastructure.