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Molecular Scale Biophysics is a multidisciplinary program focused on understanding macromolecules structure and function using a broad range of experimental approaches, including spectroscopic methods (FTIR, EPR, fluorescence, rapid kinetics), hydrodynamic methods (analytical ultracentrifugation, DLS), thermodynamic methods (ITC, DSC, DSF) and atomic force microscopy. The program is divided in a virtual mobility part and a physical mobility part.

During the program virtual mobility part, lectures and tutorials are developed and presented by the different international partners to illustrate different biophysical techniques available at the research centers. The presentations and approaches will center on technique-specific instrumentation and study system-independent aspects of the techniques though real-life illustrations.

During the program physical mobility part, students will work at the IM2B research institute (Marseille) where they will have direct access to state-of-the art instrumentations. Practical aspects of selected techniques will be studied with students having the opportunity to use various techniques and analyze data they have acquired in a research context. This part will be taught both by local teachers and teachers from partner universities.

This program has been developed at the interface between the different biochemistry programs of the CIVIS partner universities and the MOSBRI European research infrastructure, which includes 3 of the CIVIS partners. Researchers and teaching-researchers from various CIVIS universities (Aix-Marseille Université, Stockholm University, Sapienza Università di Roma) participate in this program.

The physical mobility part will be running from 2 to 6 June 2025.

The physical component will be held at the IM2B Institute in Marseille (France) and includes the following activities:

  1. Lectures and a refresher course on techniques that will be employed by the students during the week and on the study system they will be investigating. This will reinforce their theoretical knowledge of biophysical techniques and their application to biological research.
  2. Practical workshops in small groups using state-of-the-art equipment to obtain and analyze data. This will give students a better appreciation of sample requirements, technical needs and practical aspects of the different methods. Students will benefit from privileged access to experts in these various techniques.
  3. Guided data analysis sessions to help students organize and present data.
  4. A poster session to broaden students understanding of current research themes, to practice scientific communication, and to build a professional network.

The virtual component (17 February 2025-18 April 2025) will offer multiple resources to optimize student engagement and understanding of the various biophysical techniques to study macromolecule structure and function. The component is split in modules corresponding to the different biophysical techniques, including spectroscopic methods (FTIR, EPR, fluorescence, rapid kinetics), hydrodynamic methods (analytical ultracentrifugation, DLS), thermodynamic methods (ITC, DSC, DSF) and atomic force microscopy. This component will contain recorded videos (self-paced learning), online lectures (twice a week) and problem-solving tasks. The recorded videos and online lectures will provide theoretical knowledge of the various biophysical techniques. The problem-solving activities will challenge students to apply theoretical knowledge in practical scenarios, helping them to think critically and understand the strenghts and weaknesses of each technique in the context of understanding molecular function of biological systems. To maximize student engagement and learning throughout the virtual component, online quizzes will be implemented on Moodle. In addition, homework assignments will be given after each module. The detailed schedule will be available at a later date.

Explore the world of biological macromolecules through a cutting-edge, multidisciplinary biophysics program that combines state-of-the-art experimental techniques and international collaboration.