Physics University of Gothenburg

Overview

Physics from University of Gothenburg emphasizes the interaction between experiment and theory, which characterizes the development of modern physics. In short, theory provides models and concepts that can explain and predict experimental observations.

Quick Facts:

• Computers allow for numerical computation of the fundamental laws of physics and advanced techniques, such as machine learning. Using advanced instrumentation, both in-house and at large facilities like Onsala Space Observatory, will provide you with in-depth knowledge of material and biological systems, and of distant stars and galaxies.
• Our programme will develop your understanding of the fundamental laws of nature and how they are related to the smallest and most fundamental building blocks. Much of the physics and technology that we meet in everyday life falls into the category of condensed matter physics, and there are many exciting areas within physics where you can study the interaction between atoms or molecules and the consequences. There is also strong development in the areas bordering on chemistry and biology. A further concept is that of complex systems, which involves financial and societal systems in addition to physical, chemical, or biological systems.
• The core courses of the programme provide you with a solid understanding of the fundamental principles of physics, preparing you for a future driven by knowledge and technology. We offer five specializations to build upon this foundation, and recommend you choose two of the following to focus on: astronomy, biological physics, computational physics, high-energy physics, materials science
• Together with Chalmers University of Technology, we offer a strong research environment with several active researchers as course-responsible teachers in the programme. Research activities include: the study of string theory; computational methods to understand the atomic and sub-atomic scale; energy-related materials, such as lithium batteries; materials for specific applications, such as nanoplasmonics; interfaces between biological systems and inorganic structures; and advanced experiments, in which state-of-the-art instruments contribute to an understanding of both the microscopic world and astrophysical phenomena.