Base Knowledge
Technical Drawing
Teaching Methodologies
The Curricular Unit comprises two components: Traditional drawing, included in theoretical-practical classes, and Computer-aided design, included in practical laboratory classes. The UC is entirely taught based on a student-centered pedagogical model oriented towards active learning. The essential theoretical concepts are introduced in a context-specific way in each component.
In theoretical-practical classes, to be held in a room with a drawing board and drawing material at hand, after the theoretical exposition of each topic, examples of application and challenges for students to approach follow.
Laboratory classes will be taught using SolidWorks® software. They begin with familiarization with the modeling environment, progressively advancing to advanced modeling and set design. A theoretical introduction to the teaching content is made, followed by the resolution of practical exercises on the computer.
Learning Results
The Curricular Unit (CU) aims to acquire knowledge and develop skills in Mechanical Construction Design, with particular emphasis on parametric three-dimensional modeling, standardization, and dimensional and geometric tolerances. It is intended that students develop spatial visualization skills, technical communication, and functional interpretation of mechanical systems through reading, analysis, and execution of complete drawings of mechanical components and assemblies. The UC also aims to integrate traditional methods and computer-aided design (CAD) tools, promoting the application of acquired knowledge to real engineering situations, as well as collaborative work and autonomy in the learning process.
Generic skills
At the end of the Curricular Unit, the student should be able to:
– Promote the exchange of ideas, critical discussion of problems, and the presentation of substantiated technical solutions;
– Develop self-learning habits, autonomy, and responsibility in the development of academic and technical work;
– Work effectively as a team, managing tasks and communicating technical information in a clear and structured way.
Specific skills
At the end of the Curricular Unit, the student should be able to:
– Create, read, and interpret technical drawings of components and assembly drawings of mechanical systems, as well as parts lists, using the standards and conventions of mechanical construction drawing;
– Identify, select, and represent standardized elements, recognizing their elementary mechanical functions and applications in real mechanical systems;
– Apply principles of standardization and dimensional and geometric tolerance in the preparation of technical drawings, either by traditional means or using CAD tools;
– Carry out definition drawings of mechanical components, based on the functional analysis of mechanical systems and the respective overall drawings.
– Develop spatial visualization and technical communication skills through the rigorous execution of manual drawing and the interpretation of technical documentation;
– Create correctly restricted and dimensioned technical sketches, using appropriate 3D parametric modeling operations;
– Apply principles of parametric 3D modeling in the development of mechanical components, respecting functional and constructive criteria;
– Design and integrate mechanical components in a CAD environment, using standardized libraries and good design practices;
– Build and manage mechanical assemblies in a CAD environment, defining assembly relationships, checking interferences, and analyzing the relative movement between components;
– Produce 2D technical drawings from 3D models, including standard views, functional dimensions, geometric tolerances, and lists of materials.
Practical manual drawing activities allow you to develop and consolidate skills in executing, reading, and interpreting technical drawings of mechanical components and assemblies, applying the standards and conventions of mechanical construction drawing.
The practical activities developed in SolidWorks®, structured progressively, allow you to consolidate skills in modeling, assembly, technical drawing, standardization, and the resolution of real engineering problems.
Program
1. Functional dimensioning: Functional dimensions; Dimensional tolerance; Geometric tolerance: Definitions; Geometric symbols; Application and interpretation of geometric tolerances; Quotas without indication of tolerances; Adjustments; Enrollment of tolerated quotas; Surface states. 2. Design of connection elements and machine parts: Main parts connection processes; Threads; Threaded parts; Nuts; Screws; Coverings; Dowels and sections; Welding; Legs; Washers; Cog wheels. 3. Design of sets: Types of set designs; Execution of set drawings; Parts lists. 4. Parametric modeling: Sketches; Restrictions; Creation of three-dimensional models; Assemblies; Manufacturing design – Projection methods, Drawing resources, Sheet formats, Legends, Symbols, Projections, Dimensioning, Dimensioning styles; Assembly drawings; Welded Construction; Sheet metal modeling; Bolted connections; Animation. Presentations.
Curricular Unit Teachers
Luís Manuel Ferreira RoseiroInternship(s)
NAO
Bibliography
RECOMMENDED:
Silva, A., Ribeiro, C. T., Dias, J. & Sousa, L. (2013). Desenho Técnico Moderno. Editora LIDEL. ISBN: 978-972-757-337-0 (ISEC Library: 4-7-66)
Morais, J. M. (2006). Desenho Técnico Básico III. Porto Editora. ISBN: 978-972-0-32563-1 (ISEC Library: 4-7-69)
Cunha, L. V. (2004). Desenho Técnico. Ed. Fundação Calouste Gulbenkian. ISBN: 9789723110661 (ISEC Library: 4-7-42)
Dassault Systèmes. (2025). SOLIDWORKS user guide (Version 2025). https://help.solidworks.com