Study programme 2015 - 2016
Programme component of Master's Degree in Mathematics à la Faculty of Science
CodeTypeHead of UE Department’s
contact details
Teacher(s)
US-M1-MATHFA-015-MOptional UEBRIHAYE YvesS814 - Physique théorique et mathématique
    Language
    of instruction
    Language
    of assessment
    HT(*) HTPE(*) HTPS(*) HR(*) HD(*) CreditsWeighting Term
      Français0000099
      AA CodeTeaching Activity (AA) HT(*) HTPE(*) HTPS(*) HR(*) HD(*) Term
      S-PHYS-049
      Integrated Assessment: There will be an overall assessment for the entire Programme component (UE) instead of individual assessments for each Teaching Activity (AA)

      Objectives of general skills

      • Have integrated and elaborate mathematical knowledge.
        • Mobilise the Bachelor's course in mathematics to address complex issues and have profound mathematical expertise to complement the knowledge developed in the Bachelor's course.
        • Use prior knowledge to independently learn high-level mathematics.
      • Carry out major projects.
        • Independently carry out a major project related to mathematics or mathematical applications. This entails taking into account the complexity of the project, its objectives and the resources available to carry it out.
      • Apply innovative methods to solve an unprecedented problem in mathematics or within its applications.
        • Mobilise knowledge, and research and analyse various information sources to propose innovative solutions targeted unprecedented issues.

      UE's Learning outcomes

      Improve our understanding of space time. Show how group representations can help in constructing relativistic equations. Show how it predicts anti-matter. Show how equations can be formulated in terms of variational calulations. Introduce the notion of quantum field theory and its pertubative treatment. Compute tree level Feynmann diagrams

      UE Content

       Lorentz and  Poincaré groups. Representations of these groups. Construction of relativistic covariant equations. Klein-Gordon and Dirac equations. Relativistic Hydrogen atom. Charge conjugaison. Lagrangian approach and Euler-Lagrange equations. Noether theorem Canonical quantization of the Klein-Gordon, Dirac and Maxwell fields. Propagator, Wiick theorem. Perturbative approach of quantum field theory. Feynmann rules for quantum electrodynamics

      Prior experience

      Concept of special relativity and of quantum mechanics

      Term 1 for Integrated Assessment - type

      • Written examination

      Term 1 for Integrated Assessment - comments

      Not applicable

      Term 2 for Integrated Assessment - type

      • Written examination

      Term 2 for Integrated Assessment - comments

      Not applicable

      Term 3 for Integrated Assessment - type

      • Written examination

      Term 3 for Integrated Assessment - comments

      Not applicable

      Resit Assessment for IT - Term 1 (B1BA1) - type

      • Written examination

      Resit Assessment for IT - Term 1 (B1BA1) - Comments

      Not applicable

      Type of Teaching Activity/Activities

      AA
      S-PHYS-049

      Mode of delivery

      AA
      S-PHYS-049

      Required Reading

      AA
      S-PHYS-049

      Required Learning Resources/Tools

      AA
      S-PHYS-049

      Recommended Reading

      AA
      S-PHYS-049

      Recommended Learning Resources/Tools

      AA
      S-PHYS-049

      Other Recommended Reading

      AA
      S-PHYS-049
      UE : Programme component - AA : Teaching activity
      (*) HT : Hours of theory - HTPE : Hours of in-class exercices - HTPS : hours of practical work - HD : HMiscellaneous time - HR : Hours of remedial classes. - Per. (Period), Y=Year, Q1=1st term et Q2=2nd term
      Integrated Assessment: There will be an overall assessment for the entire Programme component (UE) instead of individual assessments for each Teaching Activity (AA)