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With a wealth of knowledge and experience deeply rooted in the marine industry, the European Thermodynamics Limited team embarked on a mission that had the potential to redefine standards and introduce cutting-edge technologies to the sector. Their multifaceted approach aimed to drive efficiency and innovation:
In the dynamic world of the marine industry, marked by the intricate processes of vessel design, construction, manufacturing, repair, and maintenance, a distinct need for optimisation and innovation had arisen. Amidst this complex landscape, one notable player in the marine sector, European Thermodynamics Limited, emerged as a catalyst for change. Driven by a relentless pursuit of performance enhancement and the exploration of pioneering technologies, European Thermodynamics Limited (ETL) set out to leverage its specialist knowledge and extensive experience.
Designing, constructing, manufacturing, repairing, and maintaining vessels entails a protracted and multifaceted journey. In this challenging environment, ETL positioned itself as a reliable partner, offering unparalleled expertise within the industry. Their mission: to deliver precise results and share their profound know-how, which encompassed innovative research into emerging technologies, such as thermoacoustics, with profound implications for marine applications.
This encompassing challenge spanned various facets of marine operations, ranging from the enhancement of vessel design to the optimization of maintenance processes. Among the array of emerging technologies, thermoacoustics stood as a beacon of promise, poised to revolutionise marine applications as we know them.
Titan Project
A feasibility study, aimed to create a small-scale Thermoacoustic Generator (TAG) prototype. Thermoacoustics (TA) involves converting internal heat into sound, and TITAN sought to use this technology to generate electricity efficiently. The project set out to achieve operating temperatures from 200°C to 500°C, pressures between 40mbar and 50bar, and an efficiency of 5% to 10%. The desired outcomes included enhanced fuel efficiency, reduced emissions, lower vehicle operating costs, and increased knowledge in the UK on thermoacoustics.
Powerdriver Project
The Powerdriver project aimed to develop an innovative thermoelectric power generation system for automotive and marine applications, utilising exhaust waste thermal energy to reduce fuel consumption. The project sought to improve fuel efficiency, reduce emissions, and maintain engine balance. It involved the development of thermoelectric materials and the design of heat exchangers. Despite some challenges in materials development, the project made strides in optimizing heat exchangers for efficient energy conversion. Multiple prototypes were created for different applications, with the potential for simplifying components. This innovative approach had promising implications for reducing fuel consumption and emissions in the automotive and marine industries.
The collaborative efforts within the marine industry bore transformative fruits…
