The PhD project aims to innovate the design of offshore refineries by leveraging advanced modeling techniques to simulate the dynamics and processes of refinery units on a floating rig. As the demand for sustainable energy solutions increases, floating refineries present a unique opportunity to enhance oil and gas processing while minimizing environmental impact. This research will focus on mimicking the mechanical behavior of refinery structures using hexapod systems, which provide versatile and precise motion control. The project will utilize computational fluid dynamics (CFD) and multiphysics modeling to analyze the interactions between various process units, including distillation columns, reactors, and heat exchangers, under dynamic marine conditions. The dynamics (mechanics) of marine conditions on floating rigs is simulated through the x-, y- and z- axis motions, and the roll, pitch and yaw motions of a mechanical hexapod. By integrating the hexapod mechanics into the design framework, we will explore how these systems can adapt to changing environmental factors such as wave motion and wind forces, ensuring operational stability and efficiency. Key objectives include optimizing the configuration of process units for enhanced performance and energy efficiency while assessing the feasibility of modular designs that allow for scalability and adaptability in offshore environments. The outcomes of this research are expected to contribute significantly to the development of next-generation floating refineries, paving the way for innovative approaches to energy production that align with global sustainability goals. Ultimately, this project aims to provide a comprehensive framework for designing resilient offshore refining systems capable of meeting future energy demands while adhering to net-zero emissions targets. Background required: Bachelors or Masters degree in Chemical or Mechanical Engineering, or related areas. Strong interest and background in mathematical modeling is desirable.
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