Circular Materials has undertaken a comprehensive journey to develop, test, and deploy its groundbreaking technology, advancing it from concept to a fully integrated and automated operational system. The project began with a focus on scaling up and optimizing our SWP technology, emphasizing its core components to ensure industrial relevance and impact.
The heat exchangers, critical for achieving supercritical conditions, were meticulously designed, thermally evaluated through finite element modeling (FEM), and tested in prototype machines. This process ensured compactness, efficiency, and adaptability to a range of operational envelopes, while a heat recovery system was implemented to reduce energy consumption. Concurrently, various mixer designs were evaluated and refined to optimize fluid dynamics and ensure precise control over particle size distribution and morphology.
In parallel, we upgraded the software driving our system to support seamless operational automation. Enhanced control logic and predictive maintenance algorithms were incorporated to ensure uninterrupted performance and minimize downtime. Remote monitoring capabilities were added to provide real-time oversight for both customers and Circular Materials, streamlining system management and enabling greater operational efficiency.
Following the development phase, the technology was tested in partnership with two selected customer sites, representing diverse industrial applications. These deployments allowed for real-world validation of the system’s capabilities, providing valuable insights and further refinement opportunities.
Building on these successes, the first fully automated CMH0 was established in Cadoneghe, near Padova, in September 2024. At this facility, our technology has been integrated into an operational ecosystem, marking a significant milestone, positioning Circular Materials as a leader in sustainable resource recovery
