- Docente: Alessandro Marzani
- Credits: 12
- SSD: ICAR/08
- Language: English
- Moduli: Alessandro Marzani (Modulo 1) Antonio Palermo (Modulo 2) Antonio Palermo (Modulo 3)
- Teaching Mode: Traditional lectures (Modulo 1) Traditional lectures (Modulo 2) Traditional lectures (Modulo 3)
- Campus: Ravenna
- Corso: First cycle degree programme (L) in Building Construction Engineering (cod. 5897)
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from Feb 20, 2024 to Jun 04, 2024
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from Feb 21, 2024 to May 29, 2024
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from Feb 29, 2024 to Jun 05, 2024
Learning outcomes
To provide the elements of solid mechanics useful in determining the stress and strain status of beams subject to the main stress characteristics: axial stress, bending moment, torsion and shear. To provide the basic knowledge of the mechanical properties of materials, experimental methods and quality control procedures. To make the students able to solve hyperstatic structures and perform structural safety assessment.
Course contents
Requirements/Prior knowledge
A prior knowledge and understanding of Mathematics and Physicsis required to attend the course proficiently.
All lectures will be in English. It is therefore necessary to understand the English language to take advantage of the course and to use the provided teaching material.
Course Content
- Course introduction
- Static and kinematic of the rigid body
- Static and kinematic of a system of rigid bodies
- Internal action in a beam like solid
- Theory of statically determined structures
- Stress and Strain analysis
- Stress-strain relation in elastic materials
- Geometrical properties of mass distribution
- Problems of the Saint-Venant’s cylinder
- Theory of statically undetermined structures
- Force and deformation based methods
- Strength/failure criteria
- Structural elastic stability
Readings/Bibliography
- Statics – Formulas and Problems, Engineering Mechanics 1. Dietmar Gross; Wolfgang Ehlers; Peter Wriggers; Jörg Schröder; Ralf Müller, 2017, Edition 1, Springer.
- Mechanics of Materials - Engineering Mechanics 2. Dietmar Gross; Werner Hauger; Jörg Schröder; Wolfgang A. Wall; Javier Bonet, 2018, Edition 1, Springer.
- Mechanics of Materials – Formulas and Problems, Engineering Mechanics 2. Dietmar Gross; Wolfgang Ehlers; Peter Wriggers; Jörg Schröder; Ralf Müller, 2017, Edition 1, Springer.
Teaching methods
The course content will be entirely covered by the lectures. The course consists in lectures and on sessions devoted to exercises, which will cover the practical aspects of the lectures. The instructors will supervise students during the laboratory activities.
Assessment methods
The assessment of the "expected learning outcomes" is composed of:
- written exam: 3 exercises on the topics of the course, 3 hour.
- oral exam: 3 questions on the topics of the course, 1 hour.
To obtain a passing grade (minimum is 18 points) students are required to demonstrate a knowledge of the key concepts of the subject, some ability for critical application, and a comprehensible use of technical language.
Higher grades (maximum is 30 points, cum laude) will be awarded to students who demonstrate an organic understanding of the subject, a high ability for critical application, and a clear and concise presentation of the contents.
In case of failure students can take any next final term, generally there are 6 final terms per academic year.
Teaching tools
The teaching tools are graphic table, projector and PC.
Office hours
See the website of Alessandro Marzani
See the website of Antonio Palermo
See the website of Antonio Palermo
SDGs

This teaching activity contributes to the achievement of the Sustainable Development Goals of the UN 2030 Agenda.