For many years, we have been involved in tutoring strength of materials and related topics, and you can still arrange traditional tutoring sessions with us, but firstly, tutoring is expensive (yes, we are aware of that ;-) ), especially if you want to cover the entire subject or a major part of it, and secondly, both after classes with us and university lectures, it is beneficial to have the opportunity to revisit some of the more challenging topics and practice them using example problems with solutions, and access to textbooks on strength of materials can sometimes be a bit problematic and they do not always align with the scope of the subject taught at the university.
To alleviate this issue somewhat, we have created and continue to develop the course below, hoping that these materials will help you master this beautiful subject ;-)
Strength of Materials - A Brief Introduction
Strength of Materials, also known as mechanics of materials, is an engineering discipline focusing on the analysis of stresses and strains in materials under the influence of external forces. This field of study is key to understanding and predicting the behavior of materials under various load conditions, which is crucial in engineering design and construction.
The foundation of material strength is the theory of elasticity and plasticity, which describes how materials deform (stretch, compress, twist, bend) under the action of forces and how they react to different types of loads, such as pressure, tension, shear, and torsion. By understanding these reactions, engineers can design structures and components that are safe, efficient, and economical.
Material strength combines knowledge from technical mechanics and materials science to provide practical tools for calculating stresses, strains, and safe loads for various materials and element geometries. It also includes the study of phenomena such as material fatigue, cracking, or long-term load-related phenomena like creep.
In engineering education, material strength is often taught as a supplementary subject to structural mechanics, providing students with the necessary tools for analysis and design of structures. Nowadays, with the development of technology and numerical methods, such learning is increasingly supported by computer simulation software, such as the finite element method, allowing for more complex analyses and designs.
