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Advanced Deep Learning for Physics

IN2298Elective Modules Informatics6 ECTSEnglishsummer semesterDepartment Computer Science
AI-edited module sheet. Based on the TUMonline module description, edited for readability.Original in TUMonline

What it is about

In this module you will learn deep-learning methods and numerical simulation algorithms for physical materials such as fluids and deformable bodies. By the end you will be able to apply concepts such as generative models, time-series prediction, and numerical methods for partial differential equations, and select suitable network architectures and solvers for concrete tasks.

What you will be able to do

  • Understanding fundamental deep-learning concepts (autoencoders, adversarial training, RNNs)
  • Knowledge of specialized loss functions and choice of appropriate activations
  • Understanding physical principles of elastic and plastic materials with emphasis on fluids
  • Knowledge of conserved quantities: mass, momentum, divergence-free, vorticity
  • Familiarity with discrete and continuous representations (phase fields, level sets, Cartesian/ tetrahedral meshes)
  • Mastery of numerical algorithms for PDEs: finite differences, explicit/implicit integration, pressure projection
  • Ability to compute derivatives of loss functions and construct training algorithms
  • Evaluation of learning and simulation algorithms with respect to accuracy and complexity
  • Practical implementation of central solver components in a high-level programming language

What the module consists of

  • LectureConveying the theoretical foundations on deep learning, fluid and elasticity physics, and numerical methods
  • Exercises/AssignmentsVoluntary group exercises to implement central algorithms; serve practical deepening and exam bonus
  • Demos/ExperimentsIllustrative material through applications, videos and simulations to illustrate physical phenomena

Teaching method

  • Powerpoint/SlidesPresentation of the lecture contents
  • Board/BlackboardExplanation of mathematical derivations
  • Demos and VideosVisualization of real phenomena and simulation results
  • Experiments / Physics-Fact ChallengesActive engagement of students during the lecture
  • Group work during exercisesPractical implementation and collaboration
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Official page in TUMonline · Details are not binding.