Understanding the molecular structure of substances such as metabolites, active ingredients, toxins, proteins, catalysts and materials is fundamental to understand their functionality. But what are the most advanced methods used to study the chemical structure of these systems? Two methods are particularly predominant: NMR (nuclear magnetic resonance spectroscopy) and electrochemistry. The former focuses on the nuclear spin of elements, while the latter focuses on electron transfer. Each section of this course will be enriched with examples drawn from a wide range of molecules and materials, which will not only help to understand the use of these techniques, but also to discuss their limits.
NMR has diverse applications in chemistry, biology and physics. One of the most widespread applications is MRI (magnetic resonance imaging), which is based on the relaxation time of water in tissues; we will explore the basic principles of this technique.
Applications of electrochemistry are essential in our modern world: energy (batteries, supercapacitors, electrolyzers and fuel cells), environment (pollutant detection, sensors) or innovative materials (electrochemical deposition, electrochemical characterizations). We will address an in-depth understanding of electron transfer mechanisms and the role of the electrode-electrolyte interface, and we will put them in perspective with current examples.
Language course: English
ECTS credits: 4
- Teaching coordinator: Lucas-Torres Covadonga
- Teaching coordinator: Nocton Gregory
- Teaching coordinator: Tard Cédric