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The field of shape grammars spans 47 years, but its potential in the practice and education of art, architecture, and engineering remains far from being utilized. Similarly, while reverse engineering in some engineering disciplines is well-established, its implementation in architectural design remains under-represented. By combining the two domains, this paper develops a novel method that merges the power of shape grammars as a parsing tool in reverse engineering to decode the morphogenesis of visual compositions in architectural design. The merged power is demonstrated by decoding the formal language of a façade design of a case study, in which seemingly few simple rules can derive surprisingly complex compositions. The rules of the language can then be used to reconstruct parts of the case façade. Most shape grammars in the architectural literature are applied on formal historical precedents, but the subject of morphological analysis in this paper is contemporary and has a style that exhibits non-orthogonal configurations, which initially appear far from being standardized or subjected to regulatory tectonic rules. The façade derivation grammar is explained and re-synthesized in various computations to explore emergent articulations that display its predictive, synthetic, and generative powers in addition to typical analytic ones. [ABSTRACT FROM AUTHOR]

The Adaptive Solar Facade (ASF) is a modular, highly integrated dynamic building facade.The energetic behavior as well as the architectural expression of the facade can be controlled with high spatio-temporal resolution through individually addressable modules. We present the general design process, the current mechanical design, and simulation results on photovoltaic power production and building energy consumption. We introduce the controller concept and show results on solar tracking as well as user interaction. Lastly, we present our current and planned prototypes.

The Adaptive Solar Facade (ASF) is a modular, highly integrated dynamic building facade.The energetic behavior as well as the architectural expression of the facade can be controlled with high spatio-temporal resolution through individually addressable modules. We present the general design process, the current mechanical design, and simulation results on photovoltaic power production and building energy consumption. We introduce the controller concept and show results on solar tracking as well as user interaction. Lastly, we present our current and planned prototypes. [ABSTRACT FROM AUTHOR]