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Class Three-dimensionality

  • Presentation

    Presentation

    The Tridimensionality Course Unit focuses on understanding and experimenting with the transition from two-dimensional to three-dimensional. This passage constitutes its structuring principle, enabling the exploration of the theoretical and operative concepts involved in transforming two-dimensional structures into three-dimensional ones. The transition from polygons to polyhedra relates geometry, form, structure and volume. The passage from regular to irregular introduces formal and structural variations, while the relationships between opacity and transparency explore overlapping, depth, visibility and perception. Scale transitions, through regressive and progressive processes associated with fractals, add relationships of repetition, growth, variation and organisation. The Course Unit seeks to understand and master these transitions, recognising how different two-dimensional organisations can be transformed and developed into three-dimensional configurations.
  • Code

    Code

    ULP729-25394
  • Syllabus

    Syllabus

    The syllabus explores transitions from two-dimensional to three-dimensional through three complementary areas: Geometric Transitions Two-dimensional to three-dimensional and opaque to transparent transitions; overlapping to construct forms in perspective and establish foreground/background relationships. Transitions in Solids Polygons to polyhedra and regular to irregular transitions; three-dimensionalisation of geometric meshes to understand different processes leading to three-dimensional configurations. Transitions in Scale Regressive to progressive transitions through reduction or enlargement; fractals to explore repetition at different scales, module and modularity, and their relationships. The three areas combine experimentation, understanding and design practice.
  • Objectives

    Objectives

    The Tridimensionality Course Unit aims to develop knowledge, aptitudes and skills to understand, experiment with and master the transition from two-dimensional to three-dimensional. Students should recognise the theoretical and operative concepts associated with this passage and apply them through observation, experimentation and practical exercises. The aim is to understand and establish relationships, among others, between polygons and polyhedra, regularity and irregularity, opacity and transparency, as well as between overlapping processes and regressive and progressive processes associated with scale. These relationships allow the exploration of principles of geometry, form, structure, volume, overlapping, depth, repetition, growth and variation. Students should be able to analyse, represent, construct and evaluate different transition processes, understanding the principles that enable two-dimensional configurations to be transformed into three-dimensional ones.
  • Teaching methodologies

    Teaching methodologies

    The teaching-learning methodologies are based on practical experimentation as a means of understanding processes of transition from two-dimensional to three-dimensional. Exercises begin with previously presented principles and concepts, experimented through the transformation, construction and manipulation of forms and materials. Students learn by doing, observing the changes produced and relating the results to the concepts of each exercise. The passage between different conditions - two-dimensional and three-dimensional, opaque and transparent, regular and irregular, regressive and progressive - enables concepts to be understood through their application. The three-dimensionalisation of meshes, construction of polyhedra, overlapping, changes in scale and exploration of module and modularity constitute operative learning processes. Reflection on the results enables students to understand decisions, correct processes and transfer the principles experimented with to new situations.
  • References

    References

    Lima, M. (2017). The book of circles: Visualizing spheres of knowledge. Princeton Architectural Press. ISBN 9781616895280. Lima, M. (2014). The book of trees: Visualizing branches of knowledge. Princeton Architectural Press. ISBN 9781616892180. Weyl, H. (2017). Simetria. Ciência Aberta. ISBN 9789896167646. Barbosa, R. M. (2007). Descobrindo a geometria fractal: Para a sala de aula. Autêntica. ISBN 9788575260579.    
  • Assessment

    Assessment

    Descrição dos instrumentos de avaliação (individuais e de grupo) ¿ testes, trabalhos práticos, relatórios, projetos... respetivas datas de entrega/apresentação... e ponderação na nota final.

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    Ponderação

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    0

    Portfolio

    dd-mm-yyyy

    100%

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