| Abstract Scope |
Critical metals (CMs), including rare earth elements (REEs), lithium, and other strategic elements, are essential for driving technological advancements and supporting industrial applications across various sectors. This study focuses on the design and development of hybrid mesoporous materials engineered for the selective extraction of these vital elements. These advanced solid-state materials offer a dual advantage of enhanced environmental sustainability and superior extraction efficiency, making them promising solutions for the growing demand for critical resources. The extracted metals play a pivotal role in enabling innovations in renewable energy technologies, electronic devices, and other strategic applications that are key to industrial growth and technological progress. The research explores innovative material synthesis strategies, selective separation mechanisms, and their broader implications for sustainable resource management and circular economy initiatives. Insights from this study contribute to advancing more efficient and environmentally responsible solutions for critical metal extraction and recovery, which are essential for future technological development and industrial resilience. |