Inorganic Materials Chemistry for Energy and Circularity

Explore the dynamic field of Inorganic Materials Chemistry, where cutting-edge research meets the pressing global challenges of energy sustainability and circularity. This course offers a comprehensive journey through the principles and concepts of contemporary inorganic chemistry, with a focus on the role of inorganic chemistry in the development of sustainable technologies and energy transition.

The course begins with a brief introduction to the role of inorganic chemistry in circularity, providing a solid foundation through a review of the periodic table, chemical bonding, and the fundamental relationships between structure, property, and function. From this base, we delve into the fascinating world of inorganic molecules, exploring coordination complexes, organometallic chemistry, and inorganic polymers. We'll discuss what challenges and opportunities earth-abundant elements present in creating functional materials, and how catalysis can be achieved with non-noble metals.

As we progress, the focus shifts to inorganic materials, where you will gain insight into the reactivity of solid-state materials and the unique chemistry of inorganic surfaces. We will explore the synthesis of these materials, the role of inorganic colloids, and the integration of coordination and organometallic chemistry at surfaces. The course also covers the development of hybrid organic-inorganic materials and their applications.

In the final part of the course, you will engage with the design of functional inorganic materials, learning how to combine the properties of composites to create advanced materials with specific functionalities, such as active materials and sensors. We will also explore nanostructured materials and their role in heterogeneous catalysis, a key area for advancing energy and circularity.

By the end of this course, you will not only have a broad understanding of the principles of inorganic materials chemistry but also the ability to apply these principles to solve real-world challenges in energy transition and material sustainability. This course prepares you to critically analyze and design innovative solutions that replace critical elements in functional materials with earth-abundant alternatives, driving forward the next generation of sustainable technologies.