My name is Silvestros Oikonomidis, and for the past two years, I have been working in Bilfinger Engineering's energy and process department, focusing on the intersection of engineering innovation and sustainability. With an academic background in mechanical engineering from TU Delft, I have leveraged my education to drive innovative projects in the field of energy transition as it provided me with the necessary hard skills, particularly in physics and mathematics. My thesis focused on new energy solutions, with a focus on hydrogen production through electrolysis, which has become increasingly relevant in my work.

At Bilfinger Engineering, I am involved in projects ranging from feasibility studies up to the basic engineering phase, ensuring all required process deliverables are prepared. My role demands a deep understanding of engineering principles and the ability to apply this knowledge to actual problems. One of my current projects involves the design of a heat pump warm water system for a multinational beverage company that utilizes waste heat, an initiative that underscores Bilfinger Engineering's commitment to efficiency and sustainability by reducing emissions and making efficient use of resources.

Challenges and Solutions

The transition from solid engineering theory to practical, economically feasible solutions involves some challenges. Often, the efficiency of some sustainable solutions is challenged by their financial viability and cost-effectiveness. Despite these challenges, I see an advantage in this dynamic environment, which pushes for constant learning and adaptation.
 

Embracing Innovation

I highlight the importance of traditional engineering principles in modern applications, especially in the energy transition. This includes the implementation of well-established techniques to create innovative solutions that can be adopted on a larger scale. For instance, I see the potential of hydrogen production to be scaled up within the next decade, which could decarbonize industrial processes to a significant extent.

Bilfinger Engineering plays a crucial role in this innovation ecosystem by, for example, designing systems that not only reduce emissions but also utilize waste heat efficiently. Also, the collaboration of Bilfinger Engineering with cleantech companies allows them to make innovative processes ready for commercial use.

Looking ahead, I see the role of process engineers evolving with advancements in AI and data science. These technologies are expected to drive decision-making in the operation of industrial processes, enhancing the efficiency and accuracy of process design. For Bilfinger Engineering, it is crucial to provide clients with solutions that deliver immediate results at their plants. Especially when these are related to the energy transition and carbon emissions.

“I emphasize the need for future engineers to have a deep understanding of fundamental engineering principles, as this knowledge is crucial for developing innovative solutions.”

Driving Change

I am motivated by the challenge of developing innovative solutions that tackle global sustainability issues while considering consumer costs. The balance between innovation and economic feasibility fuels my passion for contributing to the energy industry. To future engineers, I advise gaining experience with various projects and phases of the engineering lifecycle, from early development to execution. This broad experience is crucial for understanding and developing effective solutions.

My journey at Bilfinger Engineering showcases the integration of academic knowledge with practical, innovative applications in the energy transition. As the industry evolves, exciting opportunities await engineers like me to drive meaningful change. Bilfinger Engineering is a great place to work on these types of projects and where you can make an impact.