Diseño digital y fabricación de grupos de superficies arquitectónicas complejas, eficientes y continuas = Digital Design and Fabrication of Clusters of Complex, Efficient and Continuous Architectural Surfaces
DOI:
https://doi.org/10.20868/ade.2020.4497Keywords:
Morfología, diseño y fabricación digital, superficies complejas, estructuras de membranas, Morphology, design and digital fabrication, complex surfaces, membrane structuresAbstract
El auge y desarrollo de las herramientas de diseño, edición y fabricación digital en la producción arquitectónica, ha permitido que arquitectos e ingenieros puedan materializar elementos con una gran complejidad programática y formal y con un comportamiento estructural eficiente. La aplicación a la producción arquitectónica de los principios que están presentes en las superficies mínimas con estructura cristalina es de interés para el diseño, edición y fabricación digital de nuevas soluciones arquitectónicas basadas en superficies continuas, complejas y eficientes con una alta capacidad de prefabricación. La investigación presenta como pueden obtenerse y fabricarse con métodos digitales avanzados de diseño y fabricación, como la impresión 3D aditiva, una gran variedad de nuevas topologías arquitectónicas modulares, que pueden conformar en ocasiones agrupaciones complejas y porosas
Abstract
The rise and development of design, editing and digital manufacturing tools in architectural production has allowed architects and engineers to materialize elements with great programmatic and formal complexity and efficient structural behavior. The application to architectural production of the principles that are present in the minimum surfaces with crystalline structure is of interest for the design, edition and digital fabrication of new architectural solutions based on continuous, complex and efficient surfaces with a high prefabrication capacity. The research presents how a wide variety of new modular architectural topologies can be obtained and manufactured with advanced digital design and manufacturing methods, such as additive 3D printing, which can sometimes form complex and porous clusters
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