Modedlling and Structural Analysis by Finite Elements

Recommended Prerequisites

Mechanics, Strength of Materials and Structures.

Teaching Methods

Theoretical-practical classes with detailed exposition, using audiovisual means, the concepts, principles and fundamental theories and with the resolution of some practical exercises illustrative of the application of the theoretical concepts. Autonomous resolution of exercises in which students, with the guidance of the teacher, are intended to solve problems of theoretical and practical application using computer and FE software.

Learning Outcomes

The overall objective is to provide students with solid knowledge of the fundamentals of the finite element method (FEM). General concepts of modeling of various element types and analysis methods are introduced. Programming languages for script execution are also discussed, as well as comercial softwares. Additionally, genetic algorithms for optimization are introduced. The practical applications are centre in the analysis and design of building structural elements.

Work Placement(s)

No

Syllabus

MODULE A - MODELING

A.1 - General concepts about the MEF.

A.2 - General rules for the use of MEF

A.3 - Finite element linear part modeling

A.4 - Modeling of walls, high beams and reinforced concrete cores

A.5 - Modeling of reinforced concrete slabs

A.6 - Modeling with shell elements

A.7 - Three-dimensional modeling of buildings

MODULE B - NONLINEAR FINITE ELEMENT ANALYSIS

MODULE C - ANALYSIS AND DESIGN

Scripts, Python, etc

MODULE D - STRUCTURAL OPTIMIZATION

Genetic Algorithms, AI, etc.

MODULE E - MEF COMMERCIAL STRUCTURAL ANALYSIS AND DESIGN SOFTWARE (ROBOT, SAP 2000, ABAQUS).

Head Lecturer(s)

Trayana Stoykova Tankova

Assessment Methods

Assessment
Exam: 50.0%
Resolution Problems: 50.0%

Bibliography

K.J.Bathe, Finite Element Procedures in Engineering Analysis, Prentice-Hall, 1982

ABAQUS User's guide

ROBOT MILLENNIUM User's manual.