The project explores how principles derived from the architecture of mollusk shells can be applied to advance robotic fabrication techniques for architectural design and construction.
By analyzing the unique layering process employed by mollusks in shell formation, the study translates these principles into computational models and utilizes 6-axis non-planar robotic printing to fabricate intelligent 3D-printed structures.
The process involves computational modeling in Grasshopper to generate intricate geometries, followed by robotic fabrication using techniques that optimize printing efficiency and ensure precision.
A key innovation is the development of a 3D visualization technique that monitors collisions and refines the robotic simulation for enhanced safety and accuracy.
Ultimately, the project aims to offer new perspectives in architectural design by leveraging the additive nature of 3D printing inspired by mollusk shells.
Project Outcomes and Criteria
The outcome of the study is the successful application of mollusk shell-inspired principles to advance robotic fabrication techniques, leading to the creation of intelligent 3D-printed structures for architectural design and construction.
Efficiency : The robotic fabrication techniques developed optimize printing efficiency without requiring scaffolds, enhancing the overall production process.
Precision : The use of computational modeling and robotic simulation ensures the accuracy of the final implementation, meeting high standards of precision in fabrication.
Integration : Bridging the digital and physical realms, the study seamlessly integrates computational modeling with robotic fabrication, demonstrating a cohesive approach to architectural design and production.
Fellow Responsibilities : one day working with me at Autodesk Pier 9 on exploring the research
Compensation : The hourly rate is $18.07.
53 hours total
Location
San Francisco
FLSA
Non-Exempt