Module 24-M-GT-DG1 Differential Geometry and Global Analysis 1

Faculty

Person responsible for module

Regular cycle (beginning)

This module is part of a long-term overall curriculum plan for the Master's programme, which ensures that modules with an amount of at least 20 CP are offered in all five fields each year. The module is offered at irregular intervals as part of this overall curriculum planning.

Credit points and duration

10 Credit points

For information on the duration of the modul, refer to the courses of study in which the module is used.

Competencies

Non-official translation of the module descriptions. Only the German version is legally binding.

Students master the basic contents and methods of differential geometry and global analysis, i.e.they can independently carry out complex proofs in this area requiring a high level of mathematical expertise. They can perform technologies for substantial calculations on manifolds in local coordinates. They are able to deal with various aspects of differential calculus on manifolds in a technically appropriate manner. They can confidently apply the Ricci calculus in the context of tensor analysis.
Furthermore, students can recognise further-reaching connections to mathematical issues that have already been worked out. They can transfer and apply the knowledge and methods they have learnt so far to deeper mathematical problem areas. Students also expand their mathematical intuition as a result of more intensive study.
In the tutorials, students develop their ability to discuss mathematical topics and thus further prepare themselves for the requirements of the Master's module, in particular for the scientific discussion within the Master's seminar presentation and the defence of their Master's thesis.

Content of teaching

The following basic content of teaching from the field of Differential Geometry and Global Analysis is compulsory:

  • Smooth manifolds, tangent and cotangent spaces, derivations, 1-forms, differentiable vector bundles
  • Submanifolds, curves and surfaces in space, Weingarten-map, gaussian curvature, theorema egregium
  • Differential calculus on manifolds: derivations, Lie-derivation, exterior derivation, covariant derivation, geodesics, curvature
  • de Rham cohomology, Poincaré lemma
  • Riemannian metrics, Levi-Civita connection, riemannian curvature tensor

Additional content of teaching can be covered, for example:

  • Gauß-Bonnet theorem
  • Geometric structures on manifolds: semi-riemannian, complex, symplectic
  • Geometric interpretation of Newton’s mechanic, Lagrange systems, Hamilton’s mechanic

Recommended previous knowledge

Analysis 3, Geometry and Topology, Algebraic Topology, Multilinear Algebra

Necessary requirements

Explanation regarding the elements of the module

Module structure: 1 SL, 1 bPr 1

Courses

Lecture Differential Geometry and Global Analysis 1
Type lecture
Regular cycle This module is part of a long-term overall curriculum plan for the Master's programme, which ensures that modules with an amount of at least 20 CP are offered in all five fields each year. The module is offered at irregular intervals as part of this overall curriculum planning.
Workload5 60 h (60 + 0)
LP 2 [Pr]
Tutorials Differential Geometry and Global Analysis 1
Type exercise
Regular cycle This module is part of a long-term overall curriculum plan for the Master's programme, which ensures that modules with an amount of at least 20 CP are offered in all five fields each year. The module is offered at irregular intervals as part of this overall curriculum planning.
Workload5 90 h (30 + 60)
LP 3 [SL]

Study requirements

Allocated examiner Workload LP2
Teaching staff of the course Tutorials Differential Geometry and Global Analysis 1 (exercise)

Regular completion of the exercises, each with a recognisable solution approach, as well as participation in the exercise groups for the module's lecture. As a rule, participation in the exercise group includes presenting solutions to exercises twice after being asked to do so as well as regular contributions to the scientific discussion in the exercise group, for example in the form of comments and questions on the proposed solutions presented. The organiser may replace some of the exercises with face-to-face exercises.

see above see above

Examinations

e-written examination o. written examination o. e-oral examination o. oral examination
Allocated examiner Teaching staff of the course Lecture Differential Geometry and Global Analysis 1 (lecture)
Weighting 1
Workload 150h
LP2 5

(electronic) written examination in presence of usually 120 minutes, oral examination in presence or remote of usually 40 minutes, A remote electronic written examination is not permitted.

The module is used in these degree programmes:

Degree programme Profile Recom­mended start 3 Duration Manda­tory option 4
Mathematical Economics / Master of Science [FsB vom 28.02.2025] Mathematics 1. o. 2. o. 3. one semester Compul­sory optional subject
Mathematical Economics / Master of Science [FsB vom 28.02.2025] Economics 1. o. 2. o. 3. one semester Compul­sory optional subject
Mathematics / Master of Science [FsB vom 28.02.2025] 1. o. 2. o. 3. one semester Compul­sory optional subject

Automatic check for completeness

The system can perform an automatic check for completeness for this module.


Legend

1
The module structure displays the required number of study requirements and examinations.
2
LP is the short form for credit points.
3
The figures in this column are the specialist semesters in which it is recommended to start the module. Depending on the individual study schedule, entirely different courses of study are possible and advisable.
4
Explanations on mandatory option: "Obligation" means: This module is mandatory for the course of the studies; "Optional obligation" means: This module belongs to a number of modules available for selection under certain circumstances. This is more precisely regulated by the "Subject-related regulations" (see navigation).
5
Workload (contact time + self-study)
SoSe
Summer semester
WiSe
Winter semester
SL
Study requirement
Pr
Examination
bPr
Number of examinations with grades
uPr
Number of examinations without grades
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