The key objective of the LCP program is to innovate and integrate diverse energy generation technologies to enhance the sustainability and reliability of power supply for offshore operations. Each project focuses on developing efficient solutions—whether through hybrid power plants, advanced wind turbines, nuclear energy hubs, or improved high-voltage cables—to meet the energy demands of offshore platforms while minimizing CO2 emissions.
Collectively, these initiatives aim to facilitate the transition of the offshore industry toward cleaner, more resilient energy systems, ultimately supporting the broader goals of energy transition and environmental sustainability.
LCP Projects
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LCP.1 Hybrid offshore power plants: GTW, CCS, and ocean renewable energy
Aims to determine the optimal configuration of hybrid power plants that combine wind turbines, thermoelectric plants, and carbon capture systems. These plants will be designed to meet the electricity demands of offshore platforms with maximum efficiency and minimal CO2 emissions, leveraging both renewable energy from the ocean and cutting-edge carbon capture technologies.
Technological Challenge
The project tackles the challenge of integrating multiple power generation technologies to create highly efficient, low-emission energy solutions for offshore operations, advancing the offshore industry's transition to sustainable energy.
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LCP.2 Design of vertical-axis wind turbines for offshore deep waters
It investigates the technical and operational feasibility of floating wind farms for deep-water applications. The project will explore vertical-axis floating wind turbines (VA-FOWT) to meet the electricity demands of offshore oil platforms. Rotors, floating units, mooring lines, and cables will be developed through wind tunnel and wave tank experiments, as well as numerical approaches, aiming to push the boundaries of offshore wind energy. Considerations regarding maintenance logistics will also be made.
Technological Challenge
The project addresses the challenge of designing and implementing efficient floating wind turbine systems for deep-water offshore applications, advancing the integration of renewable energy in the offshore industry.
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LCP.3 Design of offshore nuclear energy hub
Aims to define the configuration of a nuclear power system capable of meeting the energy demands of an FPSO. A comprehensive feasibility study will be conducted, covering economic and environmental factors, technology selection, and adaptation to the offshore oil and gas context. The project will also address logistical and technical challenges, including stability, seakeeping, sloshing, and mooring design.
Technological Challenge
The project seeks to advance the integration of nuclear energy into offshore operations, addressing the challenge of designing stable and reliable floating nuclear power units to support the energy needs of offshore platforms.
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LCP.4 Dynamics of high-power cables for floating energy systems
Aims to critically assess the limitations of current high-voltage cables in dynamic deep-water offshore applications. It will propose new network topologies for FPSOs powered by a floating energy hub. Additionally, the project will outline a comprehensive R&D plan for the next phase, aiming to break the current 66kV limit and develop innovative cable concepts applicable to both the oil & gas and renewable energy sectors.
Technological Challenge
The project tackles the challenge of advancing high-voltage cable technology for dynamic offshore environments, pushing the boundaries of power transmission for floating energy systems in the offshore industry.