Interview: our plant engineer tells us about the innovative HyCool technology project advances to reduce GHG emissions at our Sant Celoni site in Spain.
By maximising the use of renewable energy through its unique technology, HyCool aims to minimise greenhouses gas emissions. Givaudan, which itself has a target of reducing absolute scope 1 and 2 GHG emissions by 30% between 2015 and 2030, is proud to host one of the project’s two pilot sites at its Sant Celoni plant. We spoke to Jorge, local Project Engineer, to get an update.
Why did Givaudan decide to participate in this project?
The idea was to test HyCool in at least two industries using significant amounts of cooling in their processes and Givaudan offers a great profile to host one of the pilot sites as a representative of the chemical industry. We couldn’t pass up the opportunity to participate in this innovative project.
HyCool is particularly attractive to Givaudan for two main reasons. First, our sustainability approach A Sense of Tomorrow includes ambitious environmental targets. This project will help us reduce GHG emissions by a projected 3% for the site and decrease energy consumption in terms of electricity and gas, helping us towards our goal of 100% renewable electricity by 2025. The project is totally aligned with our sustainability approach. Secondly, every Givaudan production plant needs heating and cooling, and it would be relatively easy to replicate this technology. HyCool should deliver refrigeration with 25% greater efficiency – this would provide Givaudan a competitive advantage.
How far along are we in the project?
We have finished the conceptual phase: we have decided where and how to use the cooling produced, where to install equipment and how to connect it. Now we are looking at detailed engineering: how to best connect materials, figuring out the best design for the electrical connections, etc. The one-year installation phase will then start this summer.
What requirements did Sant Celoni have to take into account when planning installation?
One issue was finding a place to install the solar collectors. They require more than 1, 000 m2 of surface, preferably over a roof. Because of a lack of surface on our buildings, and for safety reasons, mainly the presence of flammable products, this wasn’t possible, and we had to install the solar field at ground level. This caused problems such as how to manage shadows of other buildings that we had to solve.
We also have to comply with all EHS requirements including ensuring a good works plan for execution. We expect a number of external contractors and companies on site during installation and we will need to monitor all aspects of their work. We will need to ensure a pre-start safety review, issue corresponding work permits and make sure we prevent injuries and accidents: we want to ensure that ‘Everyone gets Home Safe Everyday’.
How did consortium partners contribute?
During the initial phase, we worked closely with the equipment companies and engineering and general contracting partners. This has been a real team effort.
What are the next steps for us as a pilot site?
The next steps are to finish the installation on time, on budget and safely and then to operate the machinery and collect data on energy efficiency and ease of use. We have two years of hard work ahead, but it will be stimulating. As to transferring the technology to other sites - why not? If it is cost effective, we will be able to use it in countries with even more favourable weather conditions such as Mexico, South Africa or Singapore.