2023/06—09
BioPrinting
[. . .Digital Fabrication of Biologically Active Cement Spatial Structures. . .]
This research explores the integration of microbial biocementation with robotic fabrication and computational design to develop innovative cementitious structures with complex geometries for architectural applications. The primary objective is to enhance bio-fabrication processes by leveraging robotic precision and advanced design techniques, thereby advancing architectural construction methodologies.
The study delves into the microbial biocementation process, which harnesses microbial activity to bind particles and form solid, sustainable structures. Key factors such as microbial selection, environmental conditions, and their impact on the efficiency of the biocementation process are analyzed in depth. Concurrently, the research addresses challenges in robotic fabrication, focusing on toolpath generation, material deposition strategies, and their integration with computational design methods.
By synthesizing microbial biocementation with robotic technology, this thesis aims to unlock new possibilities in the architectural field. The outcomes of this research contribute to sustainable and innovative fabrication techniques, demonstrating the potential of interdisciplinary approaches to redefine architectural materiality and construction.
ETH Zurich
nmahamaliyev@ethz.ch