Author:
Chen Haoyi,Pasquero Claudia
Abstract
AbstractRecent developments in digital architecture have placed a renewed focus on sustainable architectural materials and the circularity of material systems. Algae has emerged as a promising material for mitigating the effects of climate change due to its ability to absorb large amounts of carbon dioxide. However, the disposal of algal biomass can lead to significant CO2 emissions and air pollution. The upcycling of algae into composite materials can promote circular economies by reducing the demand for petroleum-based products. In this context, this research explores the potential of Ulva algae in creating 3D-printed architectural prototypes based on bio-algorithm. An experimental analysis of the material properties of algae-based plastic is conducted and compared to similar reference products. This study argues for the importance of designing and fabricating these materials at the required scale while leveraging bio-thinking principles to create closed-loop systems and maximize the potential of natural resources.
Publisher
Springer Nature Singapore
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