Steacie Fellowship RTI - Infrastructure for the synthesis and characterization of nanostructured metal-functionalized multiferroic materials

新技术的发展关键取决于以新的和令人兴奋的方式控制材料性能的能力。小型化和能效的现代趋势，以及社会对清洁能源生产和高效能源储存的新需求，揭示了对能够使下一代技术具有更高性能的新材料的需求。多铁性材料(MFS)是这些领域应用的主要竞争者之一。MF由它们的电子、磁性和/或弹性属性之间的相互关系来定义。我们最近的工作表明，MFS在光电转换(太阳能发电所需的光转换)方面具有独特的性能，并且用贵金属纳米颗粒装饰的MFS提高了水分解的效率，这是一种从水中产生氢气的过程。

The development of new technologies depends critically on the ability to control materials properties in new and exciting ways. Modern trends towards miniaturization and efficiency, as well as emerging societal demands for clean energy generation and efficient energy storage, have revealed the need for new materials that can enable next-generation technologies with improved performance. Multiferroic materials (MFs) are among the leading contenders for applications across many of these areas. MFs are defined by the interrelationship between their electronic, magnetic and/or elastic properties. Our recent work has shown that MFs have unique properties with respect to light-to-electrical conversion (photoconversion, as required for solar electric generation) and that MFs decorated with noble metal nanoparticles have enhanced efficiencies for water splitting, a process that generates hydrogen gas from water.