2016
DOI: 10.1007/978-3-319-32098-4_35
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A Bottom-up Design Framework for CAD Tools to Support Design for Additive Manufacturing

Abstract: Additive manufacturing (AM) technology is enabling a platform to produce parts with enhanced shape complexity. Design engineers are exploiting this capability to produce high performance functional parts. The current topdown approach to design for AM requires the designer to develop a design model in CAD software and then use optimization tools to adapt the design for the AM technology, however this approach neglects a number of desired criteria. This paper proposes an alternative bottom-up design framework fo… Show more

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Cited by 4 publications
(4 citation statements)
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“…Once the geometry of a given component is represented by a triangular mesh (STL file), identifying facets that overhang beyond a critical angle is trivial. The critical overhanging angle was set at 45° as this is a common guideline for all AM manufacturing processes (Goguelin, Flynn, and Dhokia 2016). It is therefore tempting to use the number of overhanging facets as a metric to measure the optimality of a particular build orientation, as given in (1).…”
Section: Optimisation Challenges and Evaluation Criteriamentioning
confidence: 99%
“…Once the geometry of a given component is represented by a triangular mesh (STL file), identifying facets that overhang beyond a critical angle is trivial. The critical overhanging angle was set at 45° as this is a common guideline for all AM manufacturing processes (Goguelin, Flynn, and Dhokia 2016). It is therefore tempting to use the number of overhanging facets as a metric to measure the optimality of a particular build orientation, as given in (1).…”
Section: Optimisation Challenges and Evaluation Criteriamentioning
confidence: 99%
“…However, as the hybrid prototyping technique in this paper is focussing on FDM printing, the DfAM review will only consider those relevant to FDM printing. There are two areas in DfAM that the designer must understand: process considerations and geometric considerations (Goguelin, Flynn, & Dhokia, 2016). The process considerations include the capability of the printers (size, accuracy, speed), material properties (strength, temperature, part anisotropy), and the print settings (layer height, infill percentage, wall thickness, support material etc).…”
Section: Design For Additive Manufacturementioning
confidence: 99%
“…To overcome this problem, software tools can be used to accompany the existing DfAM guidelines. This allows them to be applied in a more interactive and context-sensitive way, as partly described by Goguelin et al (Goguelin et al, 2016). In a previous publication, the available functionality of DfAM software support tools has been analyzed (in scientific literature, as well as in commercial software).…”
Section: Introductionmentioning
confidence: 99%