Study structure

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Your Bachelor's degree program consists of several modules, which usually end with an exam. Some modules are compulsory, but you can also pursue your personal interests with numerous compulsory electives and create your own individual timetable.

Course content & components

In the first two semesters, the basics, theories and methods of sustainability and sustainability research lay the foundation for a holistic understanding of the subject area.

The basic chemistry course includes general chemistry, inorganic chemistry, organic chemistry, physical chemistry and synthetic chemistry.

The lectures are usually combined with exercises, seminars and laboratory practice.

Once you have built up your basic knowledge, you will focus on the principles of green chemistry and aspects of sustainable chemistry.

The fundamentals of mathematics include, for example, the basics of rules of logic and set theory, proof strategies and mathematical structures. Furthermore, the focus of the foundation course is on linear algebra, an introduction to analysis and differential equations.

To support the first application contexts, there is a programming course and a first seminar on mathematical modeling.

In this area, you can choose to deepen your knowledge of stochastics, numerics or integration theory, and then choose application-oriented in-depth lectures that include, for example, modeling in biochemical, physicochemical or pharmaceutical contexts.

Finally, you will apply your mathematical knowledge independently to data sets or questions related to chemistry in the sustainability project seminar.

In this area, you can choose from a variety of courses according to your interests - e.g. theoretical chemistry, computational chemistry, spectroscopy or photochemistry, biopolymers or energy storage.

For an in-depth project, you can choose between a theoretical, modeling task or one in the field of synthetic chemistry.

In addition to sustainability studies, you will be offered two individually selectable specializations from other subject areas related to sustainability.

This should help you to adopt different perspectives on this multi-layered and complex topic and prepare you well for your future activities.

You can choose specializations that give you

  • offer you insights into areas that are more closely related to the subject, e.g. biochemistry, agricultural or engineering sciences
  • specialize your skills in combining chemistry and mathematics for sustainability, e.g. in the field of artificial intelligence and data science
  • offer rather complementary but equally important perspectives and skills that support you, for example, in the reflective planning, implementation and communication of sustainability projects

This module gives you a great deal of freedom to design your own program and to combine all of your individually selected study components.

At the end of your studies, demonstrate that you can independently work on and present a project related to current issues at the interface of chemistry, mathematics and sustainability.

 (opens enlarged image)Pie chart showing the proportion of study areas in the scope of study
Pie chart of study components

All module descriptions for our degree program can be found in the module handbook.

Details of the module descriptions: Forward

Why are mathematics and chemistry combined?

Mathematics and chemistry both deal with abstract structures and relationships, both follow formalized, logical procedures and can be used for each other.
Numerous models for explaining chemical phenomena are based on mathematical descriptions, for example, so that a solid basic understanding of mathematics also helps to understand basic assumptions for chemistry. With increasing depth and increasing amounts of data, the mathematical background becomes even more relevant and offers more possibilities, e.g. to formulate and test hypotheses.
From a purely mathematical perspective, chemical contexts offer an exciting field of application that can give rise to new models or algorithms. Although physics or computer science sometimes seem more obvious here, the application of mathematical methods to chemistry holds particular potential due to the associated industry.
You will notice typical interfaces between the two disciplines, especially in differential equations, physical and theoretical chemistry - but the other subject areas can also be linked in many ways.

How sustainability interacts with chemistry and mathematics

For numerous challenges in the context of sustainable development - e.g. for aspects of health, water and energy supply, the use of resources, industry and production, climate change, etc. - chemistry provides the basis for understanding the problems and thus also approaches to solving them.
On the mathematical side, modeling and simulations based on abstract theories or large data sets can contribute to even more targeted chemical research and better forecasts.

The diversity of choices in sustainability studies can also reveal many other aspects in which chemistry and/or mathematics are linked to sustainability in different ways - e.g. via life cycle analyses, water quality modeling, database use, critical raw materials and much more.
With this interdisciplinary approach, we try to sensitize you to different dimensions of sustainability - for example, you can also place engineering, economic, legal or philosophical perspectives alongside your mathematical-chemical ones.

If you would like to illustrate the sustainability references in your studies using the 17 Sustainable Development Goals of the United Nations, you can view a marked study plan here.


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