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Class Materials Engineering

  • Presentation

    Presentation

    The course unit Materials Engineering introduces the fundamentals of materials science and engineering, covering atomic structure and bonding, crystalline and amorphous structures, solidification processes, and crystal defects. It includes the study of the mechanical properties of metals and related tests (tensile, hardness, toughness, fatigue, and creep), as well as phase diagrams, the iron-carbon diagram, and steel manufacturing processes. Additionally, polymers and composites are introduced, with their structural characteristics and applications. The scope lies at the interface between materials engineering and industrial production, being essential to understand the relationship between microstructure, properties, and performance. Its relevance in the study cycle stems from the need to strategically select and apply materials, ensuring innovation, efficiency, and sustainability.
  • Code

    Code

    ULHT41-3193
  • Syllabus

    Syllabus

    Introduction Course framework and relevance of materials engineering in Industrial Engineering and Management. Introduction Fundamental concepts, classification of materials, and importance in engineering. Atomic Structure and Bonding Atomic models, types of bonding, and resulting properties. Crystalline and Amorphous Structures Unit cells, crystal systems, and amorphous materials. Solidification and Defects Solidification processes and point, line, and volume defects. Mechanical Properties Mechanical behavior, tensile, hardness, toughness, fatigue, and creep tests. Phase Diagrams Gibbs rules, reading and interpretation of binary diagrams. Engineering Alloys Main metallic alloys, processing, properties, and industrial applications.
  • Objectives

    Objectives

    Knowledge Understand atomic structure, chemical bonding, and their influence on material properties. Know crystalline and amorphous structures, solidification processes, and main crystal defects. Understand the mechanical properties of metals and the influence of microstructure on behavior. Identify key phase diagrams and engineering alloys. Skills Apply mechanical tests (tensile, hardness, fatigue, creep) to assess properties. Relate atomic, physical, and chemical characteristics to structural changes in materials. Competences Select suitable materials according to design and service requirements. Diagnose defects in materials and propose solutions to prevent them. Develop critical thinking for decision-making in manufacturing, selection, and maintenance of materials.
  • Teaching methodologies and assessment

    Teaching methodologies and assessment

    The course adopts active methodologies that combine lectures, practical classes, and digital resources to enhance understanding and application of contents. Explanatory videos and simulations are used to visualize abstract concepts such as crystal structures, phase diagrams, and material defects. Students carry out practical assignments that promote research, critical thinking, and real application. Industrial case studies are also discussed, strengthening the link between theory and practice. Additionally, the Moodle platform is used for sharing materials, assignments, and submissions, while tutorials and support sessions assist autonomous learning.
  • References

    References

    Smith, William F. - Princípios de Ciência e Engenharia dos Materiais ,Terceira Edição.Lisboa: McGraw-Hill de Portugal.ISBN: 972-8298-68-4  
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