Several billion tons of chemical products and materials are produced per year. These products can enable our high standard of living and health. While these products offer benefits, their production and use also pose complex and severe impacts on the planet. Essentially, there is a critical need for greener, more sustainable chemicals, materials and products to address these challenges responsibly. Chemistry both as a science and an industrial sector can transform matter, being key to change the material basis of societies towards more sustainability. The production and use of chemicals, materials, and products significantly impact downstream users and have complex implications for the planet, human welfare, justice, and health, both positively and negatively. To address these challenges, a move towards greener chemicals, materials, products, and their more sustainable application is necessary, offering effective solutions to the needs of humankind and societies in a responsible manner. At the same time, achieving sustainable development requires a reduction and transformation of resource use and material flows. This shift is essential for a society and economy to operate within the safe space of planetary boundaries. The types of resources and materials used, and how they are used, have significant implications for the social foundations of humanity. This involves a shift towards dematerialisation – significantly cutting resource extraction and material throughput – and replacing toxic and persistent materials with benign alternatives.
Sustainability Science: Resources, Material Flows and Chemistry (M.Sc.)
Masters Programme
Resources, Material Flows and Chemistry – The Programme
Content
In a full life cycle and systems thinking the significance of resources, material flows and chemical products in various sectors as industry and in society is set out at the earliest stages of this Master Course. After successful completion students will be able to understand the resources required for a particular product, related issues as well as possible alternatives, including non-chemistry-based alternatives such as alternative business models. Students will learn how to contribute to long-term sustainability. This requires to be familiar with metrics for greenness and sustainability assessment, (e.g., E-factor or life cycle assessment), benign design of chemicals, materials, products and processes such as recycling and sustainable separation and circularity in the scope of sustainable chemistry as a background, aligned with vanguard references, as well as relevant legal regulations and directives.
Thus, concepts of sustainable chemistry along the full life cycle of chemical substances, materials and complex products will be explained, highlighting the importance of resources and their extraction, opportunities and limitations of green chemistry, materials and products, specifics of renewable (i.e., bio-) and non-renewable ressources (e.g. metals and other chemical elements) including their flows, recycling, loss of resources by dissipation, safe and sustainable by design, and other topics such as new business models, international substance, material, and chemical management.
Structure
In this course, common foundations of natural and social and sustainability sciences as well as ethics and economics are provided in the first semester’s starting modules, as Sustainability Science, Transdisciplinary Methods together as an introduction to the concept of Sustainable Chemistry and Green Chemistry looking at Resources, Chemicals, Materials, Products, Recycling and related international regulations.
In the following two semesters, modules related to LCA and Non-Renewable Resources, Renewable Resources, Circularity and Recycling, and Benign by Design will deepen and add to this. The students can select elective modules to further specialize in their individual disciplines according to their interests. The fourth semester will be dedicated to developing, writing and defending the Master's thesis.
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