Sustainable and cost-effective supercapacitors

Project summary

The overall goal of this qualification project is to lower the risk of bringing the proposed novel electrode materials from the current academic environment to the superconductor industry. Our primary objective is to achieve technical readiness for pilot testing and productization, including improved performance matrix, optimised electrode design, scalability, safety, reliability and environmental considerations. This groundbreaking project, led by VIS and the Advanced Nanomaterials for Clean Energy and Health Applications (ANCEHA) research group at HVL, pioneers novel electrode materials, quaternary Transition Metal Oxides (TMOs), for supercapacitors. Initial results indicate impressive energy and power densities, setting the stage for significant further advancements. What sets this project apart is its commitment to scalable synthesis of electrode materials using eco-friendly, cost-effective methods. The materials employ abundant and economically feasible elements, a stark departure from the rare materials currently prevalent in supercapacitors. This not only enhances economic viability but also underscores the project's contribution to the evolution of sustainable and cost-effective energy storage solutions. Mitigating technical and commercial risks, the project unfolds in two work packages designed to reach critical go/no-go decision points in the overall commercialization process. The technical package focuses on proving the feasibility of the materials for use in supercapacitors, while the commercial work package seeks to establish a clear business case through market insights and cultivating relationships with potential industrial partners. These outcomes trigger the next phase of the innovation project in which we will prepare the technology for commercial piloting and license negotiations.