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About this Training Course
This 3-day course covers FPSO field development and operations through layup and scrapping, emphasizing the roles and expertise required at each lifecycle stage. It addresses the activities and personnel requirements to take an offshore field from conception to operations and ultimately to disposal of equipment and structures. Designed for both technical and non-technical participants, it provides a structured, end-to-end view of the FPSO lifecycle.
Day 1 establishes foundations: Field Identification & Survey; Sampling; Field Development Costs; Development Options; Vessel/Structure types. Day 2 examines development pathways and critical systems: new build vs. conversion, FPSO equipment, regulations (classification, training, government/IMO), yard choices and specialties. Day 3 focuses on execution and late-life phases: non-negotiable yard requirements, operations (manning, engineering, logistics, special inspections), hydrocarbon contracts, and end-of-field options leading to scrapping and field cleansing.
The course will also address FPSO build and conversion shipyards; offshore yards; subcontractors; equipment vendors; service providers; classification societies; and marine & offshore personnel across design/engineering, planning, procurement, project management, construction, quality control, surveys, commercial, commissioning, and project administration related to conversions and new builds. Each module clarifies roles, interfaces, decision gates, and deliverables across the lifecycle.
An FPSO (Floating Production, Storage and Offloading vessel) processes hydrocarbons offshore and stores stabilized crude before transferring it to shuttle tankers. It is widely used because pipelines and fixed platforms are often uneconomical in deepwater and remote fields. Moreover, FPSOs offer flexibility, since they can operate in varied metocean conditions and support long-term production with integrated topsides systems.
New-build FPSOs are purpose-designed, and therefore provide optimized hull strength, better topsides integration, and longer fatigue life. Conversions, however, modify existing tankers such as VLCCs, which results in faster delivery and lower cost but introduces layout and structural limitations. Consequently, the decision depends on field life, processing complexity, available schedule, and yard capability.
Reliability depends on several core systems. The turret and mooring system ensures station-keeping; meanwhile, topsides units handle separation, compression, and water treatment. Additionally, offtake systems manage crude export, and marine utilities support power and accommodation. Safety-critical instrumentation and fire protection further ensure compliance. If any of these systems underperform, uptime and safety are immediately impacted.
FPSOs must comply with rules set by classification societies, IMO conventions, and flag/coastal-state regulators. These frameworks govern hull integrity, mooring loads, topsides safety, environmental protection, and crew competency. Moreover, regulatory updates—especially in training, environmental requirements, or safety case standards—can shift project scope, costs, and timelines. Regional variations, such as stricter regimes in Asia and Australia, further influence design choices.
FPSO operations face logistical complexity, and therefore require strong coordination among large offshore teams. Continuous topsides operation also demands rigorous maintenance, while subsea and mooring inspections add further challenges. Additionally, harsh metocean exposure and aging equipment can reduce reliability. As a result, deferred maintenance often leads to downtime, making structured inspection and engineering support essential.
At end of field life, an FPSO may enter hot layup for rapid restart or cold layup to lower operating costs. Alternatively, it may be redeployed if the hull and topsides remain suitable. Eventually, decommissioning becomes necessary, which requires hydrocarbon removal, field cleansing, and regulated scrapping or recycling. Consequently, each option depends on asset condition, cost, and future operational plans.
