posted on 2024-12-09, 01:23authored byEvan Vallender
<p><strong>Recent advancements in 3D printing have ushered in a new era of voxel-based printing, enabling precise control over material deposition and the creation of complex three-dimensional forms with volumetric properties. However, the rapid progress in voxel printing technology has outpaced the development of CAD modelling techniques, leading to a disjointed work-flow where voxel-printed objects are initially modelled using traditional 3D modelling methods and filled with volumetric information afterwards. Such discrepancy limits the full potential of voxel printing. This research proposes a solution by reintroducing meta-ball-based modelling, utilising the generated weight fields to drive various parameters. Although this approach currently requires an esoteric work-flow due to the absence of a dedicated volumetric modelling program, the research also explores procedural modelling techniques to democratise volumetric 3D modelling, making it further accessible to a wider audience. Overall, this study aims to bridge the gap between voxel printing and CAD modelling, paving the way for more seamless and efficient work-flows in additive manufacturing.</strong></p>
History
Copyright Date
2024-12-09
Date of Award
2024-12-09
Publisher
Te Herenga Waka—Victoria University of Wellington
Rights License
Author Retains Copyright
Degree Discipline
Design Innovation
Degree Grantor
Te Herenga Waka—Victoria University of Wellington
Degree Level
Masters
Degree Name
Master of Design Innovation
ANZSRC Socio-Economic Outcome code
280104 Expanding knowledge in built environment and design