Offshore Technology explores the systems, engineering practices, innovations and challenges, driving offshore operations across energy and marine sectors. Topics you can expect include subsea engineering, floating production systems, offshore wind technologies, digital monitoring and control systems, and asset integrity management.
Delve into analysis, and insights on emerging technologies improving safety, efficiency, and performance in increasingly harsher offshore environments in the journey to cleaner sustainable energy sources.
Offshore construction vessels play a vital role in supporting subsea field development, combining specialised capabilities such as pipelay, diving support, and subsea construction within highly versatile platforms. As offshore projects become more complex and move into deeper waters, designers are increasingly required to balance operational capability, vessel arrangement, hydrodynamic performance, and station-keeping requirements. Comparative studies of purpose-built offshore vessels provide valuable insight into how differing mission demands influence ship design, while supporting the development of more capable, efficient, and adaptable offshore construction fleets.
Advances in computational fluid dynamics are providing new insight into the long-standing challenge of predicting full-scale ship resistance, reducing reliance on traditional extrapolation methods derived from model testing. By improving understanding of viscous and wave-resistance scale effects, CFD analyses are helping to refine performance prediction techniques, supporting more accurate assessments of vessel efficiency and contributing to the development of more reliable and effective ship design methodologies.
Accurate prediction of a vessel’s dynamic draught and under-keel clearance in shallow water is becoming increasingly important as larger container ships operate within increasingly constrained waterways and ports. Full-scale measurements and validation studies are improving understanding of squat and manoeuvring effects, highlighting how vessel motions during turning can significantly influence under-keel clearance and supporting safer navigation and port operations.
The development of very large, high-speed trimaran vessels presents unique hydrodynamic challenges, particularly where hull interactions strongly influence resistance, wave patterns, and overall performance. Advances in computational and experimental design methods are improving understanding of multihull interference effects, supporting the optimisation of trimaran configurations for demanding applications while enhancing efficiency, operability, and the integration of specialised mission capabilities such as aircraft operations.
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