COME Welcome 2016 - TUM · TUM. Key Data 2019-10-07 [email protected] 17 15 Departments 411 Buildings...

Technische Universität München

COME Welcome

2019Prof. Fabian DUDDECK

[email protected]

2

TUM. The Origin

1868

King Ludwig II

founded

„Polytechnische Schule“

2019-10-07 [email protected]

3

TUM. Milestones


1868 King Ludwig II founds the "Polytechnic School"

1877 "Technical University"

1901 Right to Award Doctorates

First Doctoral Candidate: Georg Hauser (Chemistry)

1905 Admittance of Female Students

First Female Doctoral Candidate: Amalie Baur (Chemistry)

1930 Integration of the College of Agriculture and Brewing in

Weihenstephan

1957 First Neutron Research Reactor in Germany

1967 TUM School of Medicine, University Hospital

1970 Presidential Constitution, "Technische Universität München"

1999 TUM‘s University Reform started,

Entrepreneurial University Constitution

2000 TUM School of Life Sciences Weihenstephan (Matrix Structure)

2000 Foundation of the COME program

4

TUM. Milestones


2002 TUM Branch in Singapore: TUM. Asia Pte. Ltd.

TUM School of Management

Department of Sport and Health Sciences

2004 High-Flux Research Source Heinz Maier-Leibnitz

2005 TUM Institute for Advanced Study (IAS)

2006 TUM elected "University of Excellence"

TUM Int. Graduate School of Science and Engineering (IGSSE)

2009 TUM School of Education

TUM Graduate School

2010 TUM University Foundation

Munich School of Engineering (MSE)

2012 TUM again elected "University of Excellence"

Munich Center for Technology in Society (MCTS)

2014 Hochschule für Politik München – Bavarian School

of Public Policy

2015 Munich School of Bioengineering

2018 150 years jubilee Technical University of Munich

2019 TUM “University of Excellence“ for the third time

2019 YOUR start here at TUM

TUM. Selected Nobel Laureates

5

• Heinrich O. Wieland

1927, Chemistry

• Hans Fischer

1930, Chemistry

• Rudolf L. Mößbauer

1961, Physics

• Ernst Otto Fischer

1973, Chemistry

• Klaus von Klitzing

1985, Physics

• Robert Huber

1988, Chemistry


TUM. Selected Inventors, Engineers, Entrepreneurs

6

• Oskar von MillerStorage Power Plants

Walchensee Power Plant

German Museum

• Carl von LindeRefrigeration Engineering

Linde’ s Refrigeration Machines

Air Liquefaction

• Rudolf DieselCombustion Engine Development

Diesel Engine (MAN)

• Claude DornierAircraft Construction

Water Planes

• Willy MesserschmittAircraft Construction

First Jet Plane Engine

• Heinz Maier-LeibnitzNeutron Research

"Atom Ei"


TUM. International Rankings


https://www.tum.de/en/about-tum/our-university/rankings/

TUM. Partner Universities and International Locations


TU/e

DTU

Technion

EP

EPFL

EuroTech Universities Alliance

Strategic Initiatives

ICL

KNUST

TUM Locations Worldwide

TUM San Francisco

TUM Brussels

TUM Beijing

TUM Mumbai

TUM São Paulo

TUM Cairo

TUM Asia

160 Partner Universities

320 ERASMUS Exchange Partners

TUM. Partners of Excellence

2019-10-07 [email protected] 10

European Metropolitan Region Munich

11

Industry Network Start-up NetworkAcademic Network

51TUM Joint

Appointments


TUM. Locations

12

Airport

Klinikum

Campus Garching

Martinsried

MPI-BiozentrumGroßhadern

CampusMünchen

Campus

Freising- Weihenstephan

Garching

Olympiapark

München

Klinikum Rechts der Isar

(University Hospital)

Freising-Weihenstephan

Sport and Health Science

Olympiapark

Pasing

Pasing, cbm


TUM. Munich Downtown Campus

Civil, Geo, and

Environmental Engineering

Architecture

Electrical &

Computer Engineering

TUM School of

Management

TUM School of Education

TUM School of

Governance


TUM. Garching Campus

14

Chemistry

Physics

Informatics

Mathematics

Mechanical Engineering

TUM Institute for

Advanced Study

Medical Engineering

Research Neutron

Source


TUM. Weihenstephan Campus

15

TUM School of Life

Sciences Weihenstephan


University: Product of Research and Teaching

16

• Basic Research

understanding the world

• Applied Research

shaping the world

• Method-Oriented Training

provide theoretical principles

support practical orientation

• Structured Training for Graduates:

TUM Graduate School

reach subject-specific depth

open a general horizon

• Innovation Culture – TUMentrepreneurship

acquire entrepreneurial thinking and acting


TUM. Key Data


15 Departments

411 Buildings

173 Degree Courses

41 400 Students, 35% female, 30% international

13 300 Freshman Students

9 200 Graduates per year

> 1 000 PhD Theses per year

> 8 000 Publications, peer-reviewed per year

566 Professors (incl. hospital)

6 600 Scientific Staff (incl. hospital)

3 300 Non-Scientific Staff (not incl. hospital)

117 ERC Grants (since 2008)

42 Humboldt Senior Research Fellows (2013-17)

17 Nobel Prize Laureates

20 Leibniz Laureates (DFG)

6 Humboldt Professors

> 1 000 Research Agreements p.a.

TUM. Total Student Population


2000 2005 2010 2018

40,000

35,000

30,000

25,000

20,000

41,375

26,302

20,45819,454

+113%

TUM. Departments

Center of Life and Food Science

Weihenstephan

Medicine

Chemistry

Physics

Sports Science


Electrical Engineering

and Information Technology

Mechanical

Engineering

Architecture

Civil, Geo, and Environmental Engineering

Informatics

Mathematics TUM School of Education


Exzellente Forschung

202019-10-07

TUM. Students by Department

Munich Center for Technology in Society

TUM School of Governance

TUM School of Education


Informatics

Mechanical Engineering

Electrical and Computer Engineering

Civil, Geo and Environmental Engineering

Architecture

Munich School of Engineering

Sport and Health Sciences

TUM School of Medicine

TUM Campus Straubing

TUM School of Life Sciences Weihenstephan

Chemistry

Physics

Mathematics

German Students WS 18/19

International Students WS 18/19

1,000 2,000 3,000 4,000 5,000 6,0000

Management

Education

Social Sciences

Humanities

51% Engineering

Natural Sciences

Life Sciences

Medicine33%

Planet EarthEnvironment

InfrastructureConstruction

21

TUM. BGU Department embedded in TUM

1. Construction 3. Geodesy

2. Mobility &

Transportation Systems

5. Modelling,

Simulation,

Processes4. Hydro- &

Geoscience

Focus-Areas


22

TUM. Programs (BGU)

4 BSc - programs

12 MSc – programs (7 international programs)

532 courses (lectures, seminars, tutorials,…)

MSc Civil Engineering

BSc Civil Engineering

BSc Environmental Engineering

MSc Environmental Engineering

MSc Computational Mechanics

MSc Transportation Systems

MSc ESPACE

MSc Energy Efficient and

Sustainable Buildings

MSc Land Management and Land Tenure

MSc Cartography (together

with TU Vienna, TU Dresden,..)BSc Geodesy and Geoinformation

BSc Earth Sciences (together with LMU)

MSc Engineering

Geology & Hydrogeology

MSc Geodesy and Geoinformation

Eng

GuG

Geo

MSc Transportation and Logistics (GIST - TUM Asia)

MSc Earth Sciences

(together with LMU)


TUM. Department of Civil, Geo, and

Environmental Engineering

(Courses)

COME

and

BGCE


TUM. M.Sc. Computational Mechanics

• The M.Sc. Computational Mechanics was founded in 2000

by the Faculty Civil, Geo and Environmental Engineering

• It aims for educating experts for industry and academia in

the field of computational methods in mechanics for all

areas of engineering.

Logo by COME students 2011/12

• http://www.come.tum.de


• Generally, the lectures are offered at the central campus.

• The main chairs involved are:

- Structural Mechanics, Prof. Gerhard MÜLLER

- Structural Analysis, Prof. Kai-Uwe BLETZINGER

- Computation in Engineering, Prof. Ernst RANK

- Hydromechanics, Prof. Michael MANHART

- Computational Mechanics, Prof. Fabian DUDDECK

TUM. M.Sc. Computational Mechanics

K.-U. Bletzinger G. Müller E. Rank M. Manhart F. Duddeck


Two years master program

In total 120 ECTS credits

36 ECTS credits compulsory courses

24 ECTS credits compulsory elective courses

30 ECTS credits elective courses

30 ECTS credits master‘s thesis

TOTAL

120 ECTS

Curriculum of the COME.tum program

• Additional qualification during your COME studies possible

BGCE - Bavarian Graduate School of Computational Engineering

Selection process at the end of the first semester.


Compulsory Modules

Semester 1

Computation in Engineering 1

(6 ECTS)

Advanced Fluid Mechanics

(6 ECTS)

Finite Element Methods 1

(6 ECTS)

Computational Material

Modelling I(6 ECTS)

ContinuumMechanics

(6 ECTS)

TOTAL: 30/120 ECTS

Semester 3Software Lab

Project with focus on one of the specialisations(6 ECTS)

Computer Science Fluids Solids & Structures Materials Mechanics

TOTAL: 6/120 ECTS

Semester 4Master Thesis

(30 ECTS)

TOTAL: 30/120 ECTS


CONTENT

• Object oriented modeling and programming (C++)

• Data structures

• Algorithms

• Finding roots, sorting

• Numerical integration

• Least squares method

• Conjugated Gradient method

• Quadtree/Octree structures

• Radiosity method

• Mesh generation

Compulsory Modules – Computation in Engineering 1

Stefanie Schraufstetter, André Borrmann, Ernst Rank

Quadtree for discretisation of a 2D region.


This module is running in the context of Computation in Engineering 1

CONTENT

• Introduction into IDE (Integrated Development Environment)

• Expressions in C++

• Data types

• Control structures

• Functions

• Arrays

• Pointers & references, files

• Elementary algorithms

Libraries

*.lib

Object file

*.obj

Program

*.exeLinker

Object file

*.obj

Compulsory Modules – Computation in Engineering 1

Introduction to Programming in C++


CONTENT

• Kinematics

• Kinetics – Navier-Stokes equations

• Pipe flow, free surface flow

• Dimensional analysis

• Turbulent flows

APPLICATIONS

• Hydraulic, river and environmental

engineering

• Building aerodynamics

• Process and mechanical engineering

Compulsory Modules – Advanced Fluid Mechanics


CONTENT

• Direct Stiffness Method

• Finite Element Modeling

• Variational Formulation

• Plane Stress Elements

• Beam and Plate Elements

• Convergence Requirements

• Locking and FE Technology

• Implementation

• Applications

• Complemented with the course on

Modeling, Simulation, and Validation (FE tutorials)

Compulsory Modules – Finite Element Methods 1

1 2

34

1

1-

1

1

dd Jt TBCBK


CONTENT

• Introduction to a commercial FE software

• Computer science and data management

• Mechanical modeling of structures

• Simulation of linear and first non-linear and/or

dynamic processes

• Applications

• Validations

Compulsory Modules – Finite Element Methods 1

Modeling, Simulation, and Validation


CONTENT

• Computational descriptions for material

behaviour (micro, meso & macro levels)

• Elasticity, visco-elasticity, plasticity, visco-

plasticity, etc.

• Computational modeling of

- Metals

- Polymers

- Composites

- Ceramics

- Foams

- Biomaterials

- Geomaterials

- Others

Compulsory Modules – Computational Material Modelling 1


CONTENT

• Introduction into tensor analysis

• Description of stress states in arbitrary, curvilinear

coordinates

• Lagrangian description of strain states

• Conservation of energy

• Conservation of mass

• Constitutive relations

• General treatment of continuum mechanical

knowledge in order to solve non-linear problems

• References to approaches of Technical Mechanics

(Torsion, Bending, Plates, Dynamics)

Compulsory Modules – Continuum Mechanics


Compulsory Modules – Software Lab (2nd + 3rd semester)

CONTENT

• Group work on software development.

• Engineering problems from different

application fields.

• Collaboration with industry and academia


Compulsory Elective Modules (each 6 ECTS)

TOTAL: 12/120 ECTS

Semester 2 (Summer)Choose 2 out of 4 modules

Finite ElementMethods 2

ComputationalFluid Dynamics

Theory of Plates and Shells*

Structural Dynamics

* Runs over 2 semesters

18/120 ECTSRecommended: add elective modules

Semester 3 (Winter)Choose 2 out of 4 modules

Functional Analysis &Comput. Lin. Algebra

ParallelComputing

Computational MaterialModelling 2

Optimization

TOTAL: 12/120 ECTS

12/120 ECTSRecommended: add elective modules


Compulsory Elective: Finite Element Methods 2

CONTENT

• Large deformations

• Instability

• Ultimate load analysis

• Element formulation

• Green Lagrange strain

Piola Kirchhoff stresses

• Numerical methods

• Bifurcations, limit points

path following algorithms

• Applications


Compulsory Elective: Computational Fluid Dynamics (CFD)

CONTENT

• Finite differences, finite volume method of weighted residuals

• Time integration

• Stability and accuracy analysis

• Solution of Navier-Stokes equations

APPLICATIONS

• Hydraulic, river and environmental engineering

building aerodynamics

• Process and mechanical engineering


Compulsory Elective: Theory of Plates and Shells

CONTENT

• Plane stress / plane strain

• Membranes, strut & tie models

• FE formulation

• Plates in bending

• Kirchhoff / Reissner-Mindlin

• Differential geometry

• Membrane theory

• Kirchhoff-Love theory

• Shells of revolution

• Force method

• Applications


Compulsory Elective: Structural Dynamics

CONTENT

Solution techniques for structures under the action of

dynamic loads

• Single and multi degrees of freedom systems

(SDOF and MDOF)

• Modal Analysis

• Statistical Energy Analysis

• Linear and non-linear systems

• Structures under seismic loads

• Structures under wind loads

• Machine foundations


Compulsory Elective: Functional Analysis & Linear Algebra

CONTENT

• Mathematical foundation for numerical methods

• Error analysis and convergence

• Hilbert, Sobolev and Banach spaces

• Vector and matrix algebra

• Solution methods for large systems


Compulsory Elective: Parallel Computing

CONTENT

• Introduction, hardware development

• Hardware: parallel and vector computers

• Basic concepts of parallel computing

• Performance measuring

• Message passing, the MPI library

• Blocking / non-blocking communication

• Domain decomposition techniques

Different domain decompositions of a FEM model


Compulsory Elective: Computational Material Modelling 2

CONTENT

• Algorithms for plasticity

• Advanced plasticity models

• Damage

• Fracture

• Creep

• Fatigue


CONTENT

• Mathematical basics, basic algorithms

• Gradient-based methods

• Sizing optimization

• Shape and topology optimization

• Sensitivity analysis

• Design of Experiments

• Robustness

• Evolutionary/Genetic algorithms

• Swarm methods, ant colony

• Multi-criteria optimization

• Applications

Compulsory Elective: Optimization


Some Elective Modules



46


47

• Among the 30 credits for elective modules, 21 ECTS have to be chosen

from courses defined in the official curriculum (TUMonline).

• That means a maximum of 9 credits can be taken from other programs,

for example:

- Modules from other faculties (e.g. Mechanical Engineering)

- Modules from the international ATHENS program

http://www.athensprogramme.com/catalog

http://www.international.tum.de/

- Courses offered by the language center of the TUM

German language is strongly recommended for international

students

- Courses from other master programs of the BGCE, mainly

CSE (Computational Science and Engineering)

www.cse.tum.de

Elective Modules from other Programs


http://www.athensprogramme.com/catalog

http://www.international.tum.de/

http://www.cse.tum.de/

Exams (recommended 6 exams à 6 ECTS per semester)

Semester 1 = 30 ECTSContinuum Mechanics

(6 ECTS)Advanced Fluid Mechanics

(6 ECTS)Comput. Material Modelling I

(6 ECTS)Computation in Engineering I

(6 ECTS)Finite Element Methods I

(6 ECTS)

Semester 2 = 30 ECTSCompulsory Elective I

(6 ECTS)Elective Module I

(6 ECTS)Elective Module III

(6 ECTS)*Compulsory Elective II

(6 ECTS)Elective Module II

(6 ECTS)

Semester 3 = 30 ECTSSoftware Lab

(6 ECTS)Compulsory Elective III

(6 ECTS)Elective Module V

(6 ECTS)*Compulsory Elective IV

(6 ECTS)Elective Module IV

(6 ECTS)

Semester 4 = 30 ECTSMaster thesis (30 ECTS)

TOTAL:

120/120 ECTS


Bavarian Graduate School of Computational Engineering

The Bavarian Graduate School ...

of Computational Engineering is an association of three Master programs:

1. Computational Engineering (CE) at the Friedrich-Alexander-Universität

Erlangen-Nürnberg,

2. Computational Mechanics (COME), and

3. Computational Science and Engineering (CSE) at the Technische

Universität München.

http://www.bgce.de/

• “Elite" degree programme for the best students in our

master programmes. Outstanding performance in one

of the three Master's programs will be honoured by

various, exclusive course offers and by the academic

degree of a "Master of Science" with an additional

designation with honours.


http://www.ce.uni-erlangen.de/

http://www.come.tum.de/

http://www.cse.tum.de/

Prof. Fabian DUDDECK

[email protected]

Tel.: 089 – 289-28656

Contact Address

51

Questions & Answers

TODAY: 4:30-5:30 pm

N6, 2nd floor

Room N2630

N6, 2nd floor, 2630


Thanks for joining us – Have fun and success …


COME Welcome 2016 - TUM · TUM. Key Data 2019-10-07 [email protected] 17 15 Departments 411 Buildings...

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Transcript of COME Welcome 2016 - TUM · TUM. Key Data 2019-10-07 [email protected] 17 15 Departments 411 Buildings...