Influence of the three-body abrasion kinematics on the surface characteristics of an SLS-fabricated tool during machining of ceramics - Publication - Bridge of Knowledge

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Influence of the three-body abrasion kinematics on the surface characteristics of an SLS-fabricated tool during machining of ceramics

Abstract

Experimental and modeling assessments have been conducted on the surface characteristics ofSLS-printed polyamide lapping tools, considering the influence of three-body abrasion kinematicsduring machining of Al2O3 ceramic materials. Based on the radial axis profile and topography ofsegments, surface characteristics were assessed using 3D optical profilometers and minimum zone(MZ) techniques. Machining with counter-rotational kinematics exhibited larger surface shape error,resulting in an average maximum height (Wt) of 163.48 μm and pinpointing intense wear at a toolradius of 95 mm. Conversely, the highest wear with co-rotational kinematics resulted at a tool radiusof 85 mm. Ceramic materials were improved by 64.74%, enhancing the initial spatial roughness Sa1.73 μm to Sa 0.61 μm and resulting in near-zero skewness (Ssk) of surface height distribution with co-rotational kinematics. The three-body abrasion with counter-rotational kinematics resulted in 17.14%higher material removal than co-rotational kinematics. The tool-workpiece contact has been modeledconsidering the influence of the workpiece’s velocity and tangential acceleration along the activesurface, and the findings confirmed experimental observations.

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Details

Category:
Articles
Type:
artykuły w czasopismach
Published in:
Scientific Reports no. 15,
ISSN: 2045-2322
Language:
English
Publication year:
2025
Bibliographic description:
Agebo S. W., Zieliński D., Deja M.: Influence of the three-body abrasion kinematics on the surface characteristics of an SLS-fabricated tool during machining of ceramics// Scientific Reports -Vol. 19786 ,iss. 15 (2025), s.1-28
DOI:
Digital Object Identifier (open in new tab) 10.1038/s41598-025-02692-7
Sources of funding:
  • WIMiO - Oxygenium Supporting Open Access Publications (nabór 2025)
Verified by:
Gdańsk University of Technology

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