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Surface Finishing of Metal AM Parts

Research output: Contribution to conference - Without ISBN/ISSN Conference paper

Published

Standard

Surface Finishing of Metal AM Parts. / Burns, Neil; Molyneux, Anthony; Geekie, Louise.
2016. Paper presented at 6th International Conference on Additive Technologies - iCAT 2016 Proceedings, Nürnberg, Germany.

Research output: Contribution to conference - Without ISBN/ISSN Conference paper

Harvard

Burns, N, Molyneux, A & Geekie, L 2016, 'Surface Finishing of Metal AM Parts', Paper presented at 6th International Conference on Additive Technologies - iCAT 2016 Proceedings, Nürnberg, Germany, 29/11/16 - 30/11/16.

APA

Burns, N., Molyneux, A., & Geekie, L. (2016). Surface Finishing of Metal AM Parts. Paper presented at 6th International Conference on Additive Technologies - iCAT 2016 Proceedings, Nürnberg, Germany.

Vancouver

Burns N, Molyneux A, Geekie L. Surface Finishing of Metal AM Parts. 2016. Paper presented at 6th International Conference on Additive Technologies - iCAT 2016 Proceedings, Nürnberg, Germany.

Author

Burns, Neil ; Molyneux, Anthony ; Geekie, Louise. / Surface Finishing of Metal AM Parts. Paper presented at 6th International Conference on Additive Technologies - iCAT 2016 Proceedings, Nürnberg, Germany.7 p.

Bibtex

@conference{fe0581bead3940aa900275c6bc425186,
title = "Surface Finishing of Metal AM Parts",
abstract = "Components manufactured using additive technologies are produced with a rough surface and a significant amount of support material still attached. The support structures can often be easily removed with simple tooling methods, but it can be difficult to get a smooth, uniform surface finish – particularly on internal surfaces.Surface roughness is not consistent across an additively manufactured part. The orientation of a surface relative to the build plate affects its roughness; also, internal surfaces can have a harsher surface than external surfaces. A major problem is that internal surfaces are often harder to reach; making it difficult to alter their surface properties. Across the industry there is no consensus on the method of finishing which yields the best result; often, companies will use multiple steps in their finishing method.Through experimentation, it is possible to find an optimal orientation to build parts from; some build orientations improve certain features of a design. By optimising the orientation, it is possible to save time on the finishing process and achieve a better overall product. Research into mass finishing has offered a simpler way to finish parts which works on all surfaces but does not necessarily improve the consistency across the part.",
author = "Neil Burns and Anthony Molyneux and Louise Geekie",
year = "2016",
month = nov,
day = "29",
language = "English",
note = "6th International Conference on Additive Technologies - iCAT 2016 Proceedings ; Conference date: 29-11-2016 Through 30-11-2016",
url = "https://www.icat.si/16_index.php",

}

RIS

TY - CONF

T1 - Surface Finishing of Metal AM Parts

AU - Burns, Neil

AU - Molyneux, Anthony

AU - Geekie, Louise

PY - 2016/11/29

Y1 - 2016/11/29

N2 - Components manufactured using additive technologies are produced with a rough surface and a significant amount of support material still attached. The support structures can often be easily removed with simple tooling methods, but it can be difficult to get a smooth, uniform surface finish – particularly on internal surfaces.Surface roughness is not consistent across an additively manufactured part. The orientation of a surface relative to the build plate affects its roughness; also, internal surfaces can have a harsher surface than external surfaces. A major problem is that internal surfaces are often harder to reach; making it difficult to alter their surface properties. Across the industry there is no consensus on the method of finishing which yields the best result; often, companies will use multiple steps in their finishing method.Through experimentation, it is possible to find an optimal orientation to build parts from; some build orientations improve certain features of a design. By optimising the orientation, it is possible to save time on the finishing process and achieve a better overall product. Research into mass finishing has offered a simpler way to finish parts which works on all surfaces but does not necessarily improve the consistency across the part.

AB - Components manufactured using additive technologies are produced with a rough surface and a significant amount of support material still attached. The support structures can often be easily removed with simple tooling methods, but it can be difficult to get a smooth, uniform surface finish – particularly on internal surfaces.Surface roughness is not consistent across an additively manufactured part. The orientation of a surface relative to the build plate affects its roughness; also, internal surfaces can have a harsher surface than external surfaces. A major problem is that internal surfaces are often harder to reach; making it difficult to alter their surface properties. Across the industry there is no consensus on the method of finishing which yields the best result; often, companies will use multiple steps in their finishing method.Through experimentation, it is possible to find an optimal orientation to build parts from; some build orientations improve certain features of a design. By optimising the orientation, it is possible to save time on the finishing process and achieve a better overall product. Research into mass finishing has offered a simpler way to finish parts which works on all surfaces but does not necessarily improve the consistency across the part.

M3 - Conference paper

T2 - 6th International Conference on Additive Technologies - iCAT 2016 Proceedings

Y2 - 29 November 2016 through 30 November 2016

ER -