Course Overview
This comprehensive professional development program is designed for Professionals who have been in the field for three or four or more years and ten-plus years of experience working in a similar environment, Graduates who are interested in subsea systems and pipelines, Operations engineers, Reliability engineers, Field supervisors, Maintenance engineers, Pipeline engineers, Project managers, Managers and executives, Piping engineers, and Engineers new to the pipeline industry responsible for implementing advanced subsea and pipeline engineering across North Sea integrity management, deepwater Gulf of Mexico tieback design, Caribbean Sea SURF life-extension, and multi-organizational contexts. The program addresses proven practices in pipeline integrity management and corrosion control, advanced subsea architecture and flow-assurance design, and SURF life-extension assessment and risk-based decision-making where Oceaneering delivering comprehensive pipeline integrity management for two North Sea platforms and approximately 60 km of infield and export pipelines through corrosion fitness-for-service and risk-based inspection and upheaval-buckling analysis and ongoing anomaly management, Kerr-McGee Oil & Gas Corp. and FMC Technologies Inc. developing a high-pressure ultra-long subsea tieback using an electrically heated insulated flowline and subsea pig launcher and 7-in 15-ksi HIPPS increasing initial peak flow rate by 13 percent while avoiding expensive dual pipe-in-pipe systems, and 4Subsea conducting a lifetime extension assessment of subsea umbilicals and risers and flowlines for a major oil and gas operator in the Caribbean Sea in accordance with NORSOK Y-002 and U-009 enabling safe operation beyond original design life.
The curriculum integrates Pipeline Design, Subsea Engineering, Pipeline Installation and Integrity and Inspection Management, Subsea Installation and Operations, Integrity and Maintenance of Pipelines, Subsea Architecture, Subsea Facility Inspections, Riser and Flowlines and Umbilical, Onboard an FPSO and FLNG Production, and Facilities Interfaces to provide comprehensive coverage of subsea engineering principles, pipeline integrity methodologies, and FPSO/FLNG integration domains for achieving advanced subsea and pipeline engineering excellence.
Why This Course Is Required?
Pipeline integrity management and corrosion control represent critical competencies where Oceaneering’s dedicated team including an embedded corrosion engineer and pipeline engineers ensures the longevity and safety of critical assets through corrosion fitness-for-service and risk-based inspection assessment fitness-for-service and upheaval buckling analysis engineering, with the infield and export pipelines installed in 2016 requiring regular inspections and corrosion inhibition strategies to ensure their integrity over the 30-year design life with Oceaneering’s integrated approach helping the client manage their assets efficiently with ongoing support for anomaly management and inspection planning and proactive measures including chemical injection recommendations to reduce corrosion rates and details on appropriate rock dumping requirements to mitigate upheaval buckling. Advanced subsea architecture and flow-assurance design demand specialized knowledge where Kerr-McGee and FMC Technologies conceived a subsea architecture effectively addressing technical and economical and operational challenges typical of a high-pressure ultra-long subsea oil tieback in deepwater Gulf of Mexico with the oil field located in 5,800 ft of water producing through a subsea tieback to a host facility approximately 38 miles away requiring comprehensive flow assurance analysis and subsea system design including equipment selection and sizing and subsea architecture layout and identification of emerging technologies that have the potential to reduce CAPEX and OPEX. SURF life-extension assessment and risk-based decision-making require professionals with advanced subsea expertise where the SURF equipment associated with a major operator’s asset operating offshore in the Caribbean Sea was nearing the end of its original design life with the client desiring to continue operations beyond this period provided the subsea system equipment could be confirmed as suitable for safe operation beyond its original design life, requiring 4Subsea to leverage deep expertise in failure mechanisms and design methodologies and monitoring and inspection techniques across pipeline systems to provide comprehensive integrated assessment.
Advanced subsea and pipeline engineering professionals must master pipeline design fundamentals including hydrates and on-bottom stability and hydrodynamics around pipelines and flow assurance and corrosion prevention and expansion and upheaval and lateral buckling and wax and asphaltenes and vortex-induced vibrations and fatigue, understand comprehensive subsea engineering and architecture frameworks including subsea production systems and subsea field development and subsea structures and equipment and project execution and interfaces and subsea power supply and subsea wellheads and trees and pipeline ends and inline and subsea control and riser umbilical and control umbilical and flow assurance in subsea and topside facilities and layout and FPSO and FLNG interfaces, and apply proper integrity and maintenance methods including risk-based inspection and environmental impact assessment and quantitative risk analysis and leak detection systems and consequences of failure modeling and integrity management of flexible pipes and ROV intervention and interface and subsea repair techniques and emergency shutdown and risk assessment to ensure organizations achieve superior pipeline integrity management and corrosion control, enhanced advanced subsea architecture and flow-assurance design, improved SURF life-extension assessment and risk-based decision-making, and competitive advantage through continuous inspection planning and anomaly management and proactive integrity governance protocols.
Research demonstrates training is crucial for success, with Oceaneering North Sea project showing engineers who understand corrosion mechanisms and flow assurance and upheaval and lateral buckling and RBI can support long-term integrity programs for major offshore operators with course’s treatment of corrosion prevention and VIV and fatigue and risk-based inspection and leak detection equipping professionals with practical knowledge to contribute to similar integrity teams, while Kerr-McGee and FMC Technologies deepwater tieback example highlighting how subsea and pipeline engineers who master concepts like hydrates and wax and asphaltenes and high-pressure design and HIPPS and electrically heated flowlines can deliver development concepts that both manage risk and significantly improve project NPV with course’s modules on pipeline design and subsea engineering and subsea architecture and risers and flowlines and FPSO and FLNG interfaces building that blend of technical depth and economic awareness, and 4Subsea life-extension study showing specialists who understand failure mechanisms of flexible risers and umbilicals and inspection and monitoring techniques and risk assessment can lead or support assessments that justify continued operation beyond original design life.
Course Objectives
Upon successful completion, participants will have demonstrated mastery of:
- Giving participants the necessary tools to ensure they make quality and reliable decisions.
- Learning the interconnectivity of subsea systems and pipelines.
- Learning the pipeline system installation.
- Learning how to maintain subsea systems and pipelines.
- Improving knowledge of FPSO and FLNG.
- Improving understanding and knowledge of subsea, marine life, and pipelines and their field of operation with globally recommended best practices and standards.
- Developing competence in applying risk-based inspection and quantitative risk analysis to subsea pipelines, risers, and umbilicals to support life extension and integrity investment decisions.
- Understanding how subsea architecture choices such as HIPPS, heated flowlines, and tieback configuration impact flow assurance, safety, and overall project economics.
Master advanced subsea and pipeline engineering excellence and drive integrity management and flow-assurance optimization success. Enroll today to become a Certified Advanced Subsea and Pipeline Engineering Professional!
Training Methodology
This interactive Advanced Subsea and Pipeline Engineering Training program comprises the following training methods:
The training framework includes:
- Theoretical classroom lessons delivered by the industry’s most reputable professionals
- Highly interactive practical lessons with full participant engagement
- Case studies drawing from real North Sea, Gulf of Mexico, and Caribbean Sea projects
- Workshops developing RBI methodology and flow-assurance analysis skills
- Hands-on exercises practicing upheaval-buckling analysis and HIPPS sizing concepts
- Practical demonstrations with integrity management scenarios and subsea architecture design exercises
This immersive approach fosters practical skill development and real-world application of advanced subsea and pipeline engineering principles through comprehensive coverage of pipeline design and integrity management and FPSO and FLNG integration domains with emphasis on measurable CAPEX and OPEX reduction and safety improvement and asset life-extension.
This program follows the Learn-Apply-Review model, creating a structured learning journey that transforms traditional subsea and pipeline approaches into professional advanced subsea and pipeline engineering excellence.
Who Should Attend?
This Advanced Subsea and Pipeline Engineering Training Course is designed for:
- Professionals who have been in the field for three or four or more years and ten-plus years of experience working in a similar environment
- Graduates who are interested in subsea systems and pipelines
- Operations engineers
- Reliability engineers
- Field supervisors
- Maintenance engineers
- Those who are seeking to derive the ability to make decisions in regards to subsea systems and pipelines
- Pipeline engineers
- Project managers
- Managers and executives
- Piping engineers
- Engineers new to the pipeline industry
Organizational Benefits
Organizations implementing advanced subsea and pipeline engineering training will benefit through:
- Significantly enhanced pipeline integrity management and corrosion control through comprehensive training delivering measurable returns where Oceaneering’s dedicated team including embedded corrosion engineer and pipeline engineers delivers corrosion fitness-for-service and risk-based inspection assessment fitness-for-service and upheaval buckling analysis engineering with integrated approach helping client manage assets efficiently with ongoing support for anomaly management and inspection planning and proactive measures including chemical injection recommendations to reduce corrosion rates and rock dumping requirements to mitigate upheaval buckling ensuring operational safety and increasing pipelines’ operational lifespan over 30-year design life exactly what training teaches
- Better advanced subsea architecture and flow-assurance design through Kerr-McGee and FMC Technologies case showing that the system with HIPPS allows for a 13 percent increase in initial peak flow rate with higher flow rates mainly due to the increased cross-sectional area of the flow line and combination of HIPPS and higher flow rate resulting in a significantly higher project NPV based on estimated lifecycle production for the development scenario, with the alternate development scenario incorporating a single electrically heated and insulated flow line in conjunction with a subsea pig launcher eliminating the need for injecting large volumes of methanol or other hydrate inhibitor during transient flow regimes and avoiding the cost of dual pipe-in-pipe insulated flow lines as organizational benefits highlighted in training
- Improved SURF life-extension assessment and risk-based decision-making through 4Subsea case showing the assessment identified critical gaps and vulnerabilities that need to be addressed to ensure safe and reliable operation of the asset beyond its original design life with this insight enabling informed decision-making and proactive maintenance and long-term cost efficiency for the client, with 4Subsea providing a comprehensive integrated assessment of the client’s complex asset serving as a one-stop shop for integrity evaluation delivered efficiently on time and within budget validating course content
- Strengthened competitive advantage through interface facilities such as FPSO or FLNG and requirements for subsea and pipeline systems design and installations and subsea and pipeline systems integrity management and protection and repair and maintenance and inspection of pipelines
Studies show that organizations implementing comprehensive advanced subsea and pipeline engineering training achieve significantly enhanced delivery outcomes as research confirms Oceaneering North Sea project showing comprehensive pipeline integrity management for 60 km of infield and export pipelines through corrosion fitness-for-service and RBI and upheaval-buckling analysis delivering operational safety and increased pipelines’ operational lifespan reinforcing course’s emphasis on design and inspection and repair and integrity management across the pipeline life cycle, better organizational outcomes through subsea architecture evidence demonstrating Kerr-McGee and FMC Technologies deepwater tieback showing steady-state thermal-hydraulic simulations performed from reservoir sand face to topsides establishing system deliverability and flowing pressure and temperature profiles and developing flow assurance strategy with the base case using an 8-in flow line rated to design pressure of 14,000 psi and alternate case with HIPPS delivering 13 percent increase in initial peak flow rate and significantly higher project NPV, and improved competitive positioning as SURF life-extension assessment approach enables better long-term cost efficiency while organizations benefit from their staff leveraging deep expertise in failure mechanisms and design methodologies and monitoring and inspection techniques to provide comprehensive integrated assessment.
Empower your organization with advanced subsea and pipeline engineering expertise. Enroll your team today and see the transformation in integrity management and flow-assurance optimization!
Personal Benefits
Professionals implementing advanced subsea and pipeline engineering training will benefit through:
- Deeper understanding of corrosion-mechanism mastery and long-term integrity-program contribution through Oceaneering North Sea project showing engineers who understand corrosion mechanisms and flow assurance and upheaval and lateral buckling and RBI can support long-term integrity programs for major offshore operators with course’s treatment of corrosion prevention and VIV and fatigue and risk-based inspection and leak detection equipping professionals with practical knowledge to contribute to similar integrity teams
- Enhanced subsea-architecture mastery and flow-assurance design capability through Kerr-McGee and FMC Technologies deepwater tieback example highlighting how subsea and pipeline engineers who master concepts like hydrates and wax and asphaltenes and high-pressure design and HIPPS and electrically heated flowlines can deliver development concepts that both manage risk and significantly improve project NPV with course’s modules on pipeline design and subsea engineering and subsea architecture and risers and flowlines and FPSO and FLNG interfaces building that blend of technical depth and economic awareness
- Stronger SURF-failure-mechanism mastery and life-extension-assessment leadership through 4Subsea life-extension study showing specialists who understand failure mechanisms of flexible risers and umbilicals and inspection and monitoring techniques and risk assessment can lead or support assessments that justify continued operation beyond original design life with by covering integrity management of flexible pipes and environmental and risk analysis and RBI and subsea inspections with ROVs course preparing professionals to participate in such strategic integrity-decision work
- Advanced expertise in pipeline design principles, subsea engineering methodologies, and FPSO and FLNG integration domains
- Enhanced career prospects and marketability in offshore engineering, pipeline integrity, subsea architecture design, and FPSO and FLNG operations sectors with professionals gaining skills in RBI methodology, upheaval-buckling analysis, HIPPS design, and SURF integrity management
- Comprehensive and effective management and operation of subsea and pipeline systems
- Navigation of challenges encountered during the installation and development of subsea and pipeline systems
- Rounded knowledge of the subsea and pipeline industry with comprehensive address of all the issues involved with pipeline engineering and life cycle
Course Outline
Module 1: Pipeline Design
- Hydrates
- On-bottom stability
- Hydrodynamics around pipelines
- Flow assurance
- Corrosion prevention
- Expansion, upheaval/lateral buckling
- Wax and asphaltenes
- Vortex-induced vibrations and fatigue
- Design codes and standards relevant to subsea pipelines
- Interaction between flow assurance, thermal design, and global buckling
Module 2: Subsea Engineering
- Project execution – Subsea asset integrity framework
- Subsea production systems
- Subsea field development overview
- Managing teams of multi-disciplined personnel
- Subsea structures and equipment
- Project execution and interfaces
- Overview of subsea engineering
- Team responsibilities
- Subsea field development
- The life of a subsea engineer
- Key subsea design standards (API, ISO, NORSOK)
- Balancing technical, HSE, and economic drivers in field development
Module 3: Pipeline Installation, Integrity, and Inspection Management
- Pipeline oil spill clean-up
- Spiral welded pipes
- Pipeline inspection, repair, and maintenance
- The effect of pipeline installation and integrity
- Pipeline installation methods
- Installation records and as-built data for future integrity assessment
- Typical inspection tools (PIGs, ROV, CP surveys) and their uses
Module 4: Subsea Installation and Operations
- Subsea surveying
- Typical installation vessels
- Case study: CAPEX simulation
- Subsea foundation
- Subsea pipeline installation
- Subsea soil investigation
- Subsea cost estimation
- Subsea simulator facility
- Intelligent wells with subsea data communication
- Programmed autonomous underwater vehicle
- Vessel requirements and selection
- Weather windows, operability limits, and contingency planning
- Interface management between installation contractor and operator
Module 5: Integrity and Maintenance of Pipelines
- Based RBI
- Environmental impact assessment (EIA)
- Quantitative risk analysis
- Risk-based inspection
- Leak detection systems
- Consequences of failure for modelling for oil and gas spills
- Integrity management of flexible pipes
- Key integrity threats (corrosion, fatigue, third‑party damage, geohazards)
- Integrity data management and reporting for decision-making
Module 6: Subsea Architecture
- Subsea power supply
- Structures
- Subsea wellheads and trees
- Pipeline ends and inline
- Subsea control
- Riser umbilical
- Control umbilical
- Subsea power supply
- Flow assurance in subsea
- Topside facilities & layout | FPSO and FLNG
- Interfaces onboard FPSO and FLNG facility
- Subsea manifolds
- System design and operability
- Subsea connections and jumpers
- Tieback concepts (short vs. ultra‑long, single vs. dual flowlines)
- Use of HIPPS and electrically heated flowlines in deepwater architecture
Module 7: Subsea Facility Inspections
- Project risk management
- Pipeline RBI
- ROV (remotely operated vehicles) intervention and interface
- Subsea repair techniques
- Emergency shutdown
- Risk assessment
- Maintaining a stable integrity performance for assets
- Equipment RBI methodology
- Inspection and maintenance of subsea systems
- Planning inspection campaigns and defining inspection scopes
- Linking inspection findings to anomaly management and repair plans
Module 8: Riser, Flowlines & Umbilical
- Drilling risers
- Design codes
- Offshore umbilical systems
- Flowlines (SURF)
- Hybrid risers
- VIV and Wave fatigue or risers
- Design of Deepwater risers
- Flexible risers and flowline
- Life‑extension considerations for flexible risers and umbilicals
- Monitoring technologies for VIV, fatigue, and annulus conditions
Module 9: Onboard an FPSO and or FLNG Production
- Oil and gas transfer (offloading)
- Subsea umbilical, riser and subsea facilities interfaces
- Environmental influences that are affecting FPSO operation
- FPSO and FLNG inspection and maintenance
- Regulations and legislations
- Summary of key lessons and how they fit into professional career development
- Typical topside tie‑in points for SURF systems
- Managing simultaneous operations (SIMOPS) on FPSO/FLNG
Module 10: Facilities Interfaces
- Offloading interfaces in FPSO and FLNG
- Topside facilities and their respective layouts
- Interfaces that exits on the FPSO and FLNG facilities and how they operate
- FPSO and FLNG facilities
- Environmental influences that will affect the FLNG
- Mooring systems on the FPSO
- Turret systems on the FPSO and FLNG
- Swivel in the FPSP and FLNG
- Interface risks between subsea systems, moorings, and topsides
- Designing for operability, maintainability, and future modifications
Real World Examples
Oceaneering – Pipeline integrity management for North Sea platforms
Implementation: Oceaneering reports an ongoing integrated and comprehensive integrity services contract with a major client delivering pipeline integrity management services for two North Sea platforms and their associated infield and export pipelines covering approximately 60 kilometers. A dedicated team including an embedded corrosion engineer and pipeline engineers ensures the longevity and safety of these critical assets through corrosion fitness-for-service, risk-based inspection assessment fitness-for-service, and upheaval buckling analysis engineering, with the infield and export pipelines installed in 2016 requiring regular inspections and corrosion inhibition strategies to ensure their integrity over the 30-year design life. The team of global integrity engineering experts provides comprehensive analysis and support with an integrated approach helping the client manage their assets efficiently, with ongoing support for anomaly management and inspection planning and proactive measures such as chemical injection recommendations to reduce corrosion rates and details on appropriate rock dumping requirements to mitigate upheaval buckling.
Results: Oceaneering’s integrated approach ensured operational safety and increased the pipelines’ operational lifespan, with addressing 60 kilometers of pipeline continuing to benefit from Oceaneering’s expertise in corrosion engineering and risk-based inspection and upheaval-buckling analysis and anomaly management. Results directly reflected the course’s focus on design and integrity threats and RBI and inspection and maintenance practices, demonstrating how engineers who understand corrosion mechanisms and flow assurance and upheaval and lateral buckling and RBI can support long-term integrity programs for major offshore operators over a 30-year design life.
Kerr-McGee and FMC Technologies – Deepwater Gulf of Mexico subsea tieback
Implementation: In the deepwater Gulf of Mexico, Kerr-McGee Oil & Gas Corp. and FMC Technologies Inc. conceived a subsea architecture to effectively address technical, economical, and operational challenges typical of a high-pressure ultra-long subsea oil tieback, with the development scenario consisting of an oil field located in 5,800 ft of water producing through a subsea tieback to a host facility approximately 38 miles away. The alternate development scenario proposed incorporated a single electrically heated and insulated flow line in conjunction with a subsea pig launcher where the electric heating system would be used during cold startups to mitigate the risk of hydrate formation, eliminating the need for injecting large volumes of methanol or other hydrate inhibitor during transient flow regimes, with four subsea umbilical termination assemblies including a subsea step-down transformer and dry-mate electrical connector and flying leads providing power to the flow line electrical heating system. Mounted onto the flow line sled near well number 2 was a 7-in 15-ksi high-integrity pipeline protection system (HIPPS), which allowed design of nearly the entire length of the flow line plus the riser to a much lower maximum design pressure resulting in significant savings in material and installation costs and reduction of hang-off weight on the host platform and improved deliverability of the wells due to increased pipe internal diameter.
Results: The system with HIPPS allowed for a 13 percent increase in initial peak flow rate with higher flow rates mainly due to the increased cross-sectional area of the flow line, and the combination of HIPPS and the higher flow rate resulted in a significantly higher project NPV based on estimated lifecycle production for the development scenario. Steady-state thermal-hydraulic simulations performed from reservoir sand face to topsides established system deliverability and flowing pressure and temperature profiles and developed the flow assurance strategy, exemplifying the advanced subsea architecture and flow-assurance and integrity concepts taught in the course and demonstrating how subsea and pipeline engineers who master HIPPS and electrically heated flowlines can deliver development concepts that both manage risk and significantly improve project NPV.
Major oil and gas operator (Caribbean Sea) – SURF life-extension assessment by 4Subsea
Implementation: 4Subsea conducted a lifetime extension assessment of subsea umbilicals, risers, and flowlines for a major oil and gas operator in the Caribbean Sea where the SURF equipment was nearing the end of its original design life with the client desiring to continue operations beyond this period provided the subsea system equipment could be confirmed as suitable for safe operation beyond its original design life. The life extension assessment was performed in accordance with the international standards NORSOK Y-002 for Transportation Systems and NORSOK U-009 for Subsea Equipment, with the main steps including data gathering and system overview and gap analysis and current condition assessment and risk assessment of time-dependent threats and reporting, with the equipment split into groups of flexible pipes and rigid pipelines and methanol umbilicals to ensure a more focused approach to each type of equipment. The gap analysis screened for critical changes introduced by the latest design requirements and reviewed operating conditions against original design premises, while the current condition assessment reviewed data from gap analyses along with inspection and maintenance records to assess the current integrity status, and close communication among all parties ensured the timely availability of required input data with unexpected gaps proactively flagged and addressed through ad-hoc discussions and assessments.
Results: 4Subsea provided a comprehensive integrated assessment of the client’s complex asset serving as a one-stop shop for integrity evaluation, with the assessment delivered efficiently on time and within budget and identifying critical gaps and vulnerabilities that need to be addressed to ensure safe and reliable operation of the asset beyond its original design life, enabling informed decision-making and proactive maintenance and long-term cost efficiency for the client. The Subsea Team Lead of the major operator stated that “4Subsea played an integral role in delivering the life extension study for our asset” and that “the project team showed great competence in all the areas required to complete the work and were able to answer our queries with clarity” with reports described as very clear and of high quality stating all the basis on which the outcomes were derived, illustrating the type of integrity and risk-based decisions addressed in this course’s modules on integrity management and RBI and risers and umbilicals and FPSO and FLNG interfaces.
Be inspired by leading advanced subsea and pipeline engineering achievements. Register now to build the skills your organization needs for integrity management and flow-assurance optimization excellence!
