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CNST-H2001

Mécanique des solides et des structures

academic year
2023-2024

Course teacher(s)

Philippe BOUILLARD (Coordinator)

ECTS credits

5

Language(s) of instruction

french

Course content

Section 1: Introduction

0.1 Introduction

0.2 Einstein notational conventions

Section 2: Solid mechanics

I.1 Solid statics (2D and 3D stress tensor, principle stresses)

I.2 Solid kinematics (strain, deformation, principle strains)

I.3 Constitutive equations (Hooke's law, 2D plane states)

I.4 General problem of elasticity

Section 3: Structural mechanics and strength of materials

II.1 Structural safety (limit states, stress and strain analysis)

II.2 Static scheme (statically determined and undetermined structures)

II.3 Structural element: the beam (MNV diagrams)

II.4 Tension/Compression (stresses in cables, ropes, circular vessels and pipes, composite beams, pretension, thermal effects)

II.5 Bending moment (flexural stresses and strains, composite beams, pretension)

II.6 Shear force (shear stresses and strains)

II.7 Oblique bending (flexural stresses and strains) - not included in the exam

II.8 Compound bending (flexural stresses and strains)

II.9 Introduction to torsion (shear stresses and strains) - not included in the exam

II.10 Virtual work and beam deflection (Moh's integrals)

II.11 Testing and advanced constitutive models (von Mises and Tresca yield criteria, creep, fatigue) - not included in the exam

II.12 Plastic tension/compression - not included in the exam

II.13 Plastic bending - not included in the exam

II.14 Buckling (Euler's theory for beams and columns buckling)

Objectives (and/or specific learning outcomes)

By the end of the module, the student should be able to :

  1. Describe the structural design process.

  2. Identify the structural safety requirements (Eurocodes)

  3. Analyse real-life structures.

  4. Accurately calculate the beam's structural internal forces

  5. Apply the linear elastic models to the beams and recognise their limits.

  6. Resolve comprehensive beam dimensioning problems.

  7. Describe the non-linear behaviour of the beams.

  8. Explain the structural instability concept and apply the Eulerian buckling model.

Prerequisites and Corequisites

Required and corequired courses

Cours co-requis

Courses requiring this course

Cours ayant celui-ci comme co-requis

Teaching methods and learning activities

Lectures and tutorials.
The lectures are based on flipped classes. The student has to prepare the chapter(s) planned beforehand and the lecture is dedicated to discussing the main questions. All material is available on ULB UV. The lecture will be organised physically if possible, online if not.
The tutorials are briefly introduced with theoretical concepts and individually monitored.

Contribution to the teaching profile

This module aims to develop the structural design procedure in a modern approach (Eurocodes).

This module contributes to many programme learning outcomes (available in French only).

References, bibliography, and recommended reading

Coirier, J., 1997, ‘Mécanique des milieux continus. Concepts de base’, Dunod, Paris.

Frey, F., 2000, ‘Vol. 2. Analyse des structures et milieux continus. Mécanique des structures’, Presses polytechniques et universitaires romandes, Lausanne.

The full reference list is included in the slides.

Course notes

  • Syllabus
  • Université virtuelle

Other information

Contacts

BATir Dept., CP 194/2, C Building, level 5, room C-5-206 (Solbosch campus) email: Philippe.Bouillard@ulb.be.

Campus

Solbosch

Evaluation

Method(s) of evaluation

  • written examination

written examination

  • Closed question with multiple choices (MCQ)
  • Open question with short answer
  • Open question with developed answer

Written exam with two parts: theory (TH) and tutorials (EX).

Mark calculation method (including weighting of intermediary marks)

50% TH + 50% EX.

Language(s) of evaluation

  • french

Programmes