BIO-MATERIAL PRINTING
This research explores the design implications of constructing architecture from biological materials which are grown rather than fabricated. In particular, the research is exploring robotic deposition of mycelium and its interaction with 3D-printed wood-bioplastic composite sacrificial formwork.
The research has two main trajectories: direct 3D printing of mycelium and growing of mycelium within 3D printed wood-bioplastic sacrificial formwork.
The intention of this research is to develop biodegradable building components that move away from the reliance on 3D printing petrochemical materials.
PUBLICATIONS
Alima, N. and Snooks, R. and McCormack, J., Bio Scaffolds: the orchestration of biological growth through robotic intervention, International Journal of Intelligent Robotics and Applications, 2022, volume 6 number 3, pages 522-529.
PhD DISSERTATIONS
Alima, Natalie. Interspecies Formations. RMIT University; Doctor of Philosophy (PhD). Supervisors: Roland Snooks and Jon McCormack
Composite BioForms: Mycelium core grown within a 3D printed sacrificial formwork skin
Composite BioForms: Mycelium core operates as insulation
Directly 3D printed mycelium experiments
RESEARCHERS
Natalie Alima (2019-2022)
Hesam Mohamed
RESEARCH ASSISTANTS
Daniel Ridout
Christine O’Neill
TOPICS
Mycelium grown 3D printed sacrificial formwork
Mycelium Printing
Wood-bioplastic composites
PARTNERS
SensiLab (Jon McCormack)