Computational Engineering in Solid Construction (BIW4-65)

General information

Lecture | Lecturer:

Former Professor for Special Concrete Constructions

Mr Univ.-Prof. Dr.-Ing. habil. Ulrich Häußler-Combe

Full Professor

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Contact Information

Technische Universität Dresden - Institute of concrete structures

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Visitor Address:

ABS, Floor 05, Room 021 August-Bebel-Straße 30/30A

01219 Dresden

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work Tel.: +49 351 463-36568
fax Fax: +49 351 463-37279

ulrich.haeussler-combe@tu-dresden.de

Exercises:

Research Associate

Mr Dipl.-Ing. Daniel Karl

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Contact Information

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Kontakt:

Institut für Massivbau August-Bebel-Str. 30/30A

01219 Dresden

Germany

concrete@tu-dresden.de

Courses:

7th semester: 2 SWS lecture, 1 SWS exercise
8th semester: 2 SWS lecture, 1 SWS tutorial

Applicability:
Compulsory elective module in the specialization studies, especially for the specializations structural engineering and computational engineering.

Previous knowledge:
Engineering Mechanics (BIW1-03, BIW1-04), Linear Algebra and Analysis (BIW1-05), Statics (BIW2-02), Reinforced Concrete Design (BIW2-05).

Lecture content:
The subject of the module is the fundamentals and possible applications of numerical and other computer-aided methods in the field of solid construction. For this purpose, the special material properties of concrete, crack formation, the interaction of concrete and reinforcement and the respective approaches for modeling and discretization are dealt with. Based on this, the application to typical problems of solid construction is carried out by means of examples.

You can find working material here OPAL. OPAL.

Lecture

Basics of the finite element method

Principles of modeling
Displacement approaches and element types
Modeling material behavior
Principle of virtual work / weak equilibrium forms and discretization
Numerical integration and solution methods

Behavior of reinforced concrete / reinforced concrete tension members

Uniaxial stress-strain behavior of concrete
Creep, shrinkage and temperature effects
Cracking
Stress-strain behavior of reinforcement and bond
Nonlinear analysis of reinforced concrete tension members

Reinforced concrete beams and frames

Kinematics of Bernolli and Timoshenko beams
State II, creep, shrinkage, temperature
Element types, discretization and solution methods
Prestressing
Nonlinear quasi-static and dynamic analysis of reinforced concrete beams

Beam models

Modeling
Limit theorems of plasticity
Elastoplastic and rigid-plastic calculation methods

Multi-axial concrete behavior

Multi-axial stresses and strains
Multi-axial elasticity and strength
Damage and plasticity as applied to concrete

Reinforced concrete slabs

Design with linear elastic slice calculations
Biaxial crack modeling and biaxial reinforcement
Nonlinear analysis of reinforced concrete slabs

Reinforced concrete slabs and shells

Design with linear elastic slab calculations
Kinematics of Kirchhoff and Reissner-Mindlin plates
State II in plane and stratification
Element types, discretization and solution methods
Nonlinear calculations of reinforced concrete slabs
Extension to reinforced concrete shells

Exercise

The exercises are carried out with tasks corresponding to the lecture material on the computers of the computer pool in the Faculty Computer Center at the Faculty of Civil Engineering. Suitable programs will be provided.

Evidence

For the successful participation a paper of 60 hours has to be written. Topics will be provided after consultation with the supervisors.

Examination

The examination takes place in the context of the document processing and its defense in a colloquium.

Literature

fib-Bulletin 17: Management, maintenance and strengthening of concrete structures.
Quade, J. ; Tschötschel, M. (Hrsg.): Experimentelle Baumechanik. Düsseldorf : Werner-Verlag, 1993, ISBN: 3-8041-3074-7
Richtlinie für Belastungsversuche an Massivbauwerken, Teil 1 Hochbau. Deutscher Ausschuss für Stahlbeton (DAfStb), November 1998