Mechanics of Materials II

Base Knowledge

Applied Mechanics and Strength of Materials I

Teaching Methodologies

In Theoretical-Practical classes, the expository and inquisitive methods are used. During the explanation of theoretical issues, students proceed with the resolution of exercises. In Tutorial classes, individual learning skills and teamwork are explored by clarifying theoretical doubts and following up on the various assignments-works.

Learning Results

Goals

Provide the fundamentals of the mechanical behavior of deformable solids. To study the behavior of solids when subjected to different loading states, interpreting and calculating the specific stresses and deformations produced by the loads. Derive formulas and equations that allow to predict the mechanical behavior of the materials. Provide methodologies for analysis of stresses and deformations in linear parts subject to axial stress and bending. To develop the fundamental concepts of design and verification of the safety of structures subject to different internal forces.

Competences

1. General competences

-decision-making capacity

-capacity for expression and communication

-ability to ensure quality

2. Generic competences

-ability to apprehend, analyze and synthesize

-problem-solving ability

-ability to apply knowledge and adapt to new situations

-capacity to carry out autonomous and group work

-development of autonomy in learning

-ability to predict and issue judgments

3. Specific competences

-know the theoretical and practical bases that support the design of structures

Program

1.Bending deformations

2. Deviated bending and combined bending-axial force

3. Uniform torsion

4. Shear force

5. Instability phenomena; buckling and bending-torsional instability

Curricular Unit Teachers

Hugo Sérgio Sousa Costa

Grading Methods

Assessment by final written exam quoted to 20 points (with consultation of the form provided in the test and 1 A4 page written by the student, only with the form, which will be delivered together with the test); Students with a minimum classification of 9.5 will be approved. Students can choose to carry out an interim assessment in the middle of the semester (quoted for 10 points), with the assessment of the complementary component (10 points) carried out on the day of the regular exam. Students who pass the test will only perform the complementary component; the remaining students will be subjected to taking the full exam for 20 points.

Erasmus students who do not speak Portuguese or Spanish will be assessed in the continuous assessment components (objectives and conditions defined by the teacher) and the final exam, both in English. A written or oral exam is foreseen for students who request special exams.


    Internship(s)

    NAO

    Bibliography

    Frey, F. (1994). Analyse des strucutres et millieux continus – Statique appliqué. Traité de Génie Civil de l’École polytechnique fédérale de Lausanne, Vol. 1, Presses polytechniques et universitaires romandes.

    Frey, F. (1994). Analyse des strucutres et millieux continus – Mécanique des structures. Traité de Génie Civil de l’École polytechnique fédérale de Lausanne, Vol. 2, Presses polytechniques et universitaires romandes.

    Branco, CAGM (1985). Mecânica dos materiais. Fundação calouste Gulbenkian. 

    Beer, FP; Johnston Jr. ER. (1989). Resistência dos materiais. McGraw-Hill.

    Popov E. (1999). Engineering mechanics of solids. Prentice Hall.

    Massonet C; Cescotto S. (1994). Mécanique des matériaux. Biblioteque des Universités – Genie Civil, De Boeck-Wesmael.

    Dias da Silva V. (1999). Mecânica e resistência dos materiais. Zuari – edição de livros técnicos Lda.