Deep learning based automated quantification of powders used in additive manufacturing

• Machine Learning (ML) based segmentation of powder particle imagery achieved. • Overlapping particles could be successfully delineated. • Particle size through ML based technique was within 7 % of standard measurement methods. • Additional shape parameters of circularity and aspect ratio were determined. This study proposes a novel deep learning technique for efficient powder morphology characterization, crucial for successful additive manufacturing. The method segments powder particles in microscopy images using Pix2Pix image translation model, enabling precise quantification of size distribution and extraction of critical morphology parameters like circularity and aspect ratio. The proposed approach achieves high accuracy (Structural Similarity Index of 0.8) and closely matches established methods like laser diffraction in measuring particle size distribution (within a deviation of ∼7 %) and allows determination of additional particle attributes of aspect ratio and circualarity in a reliable, repeated, and automated way. These findings highlight the potential of deep learning for automated powder characterization, offering significant benefits for optimizing additive manufacturing processes.

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Publication Details

Journal
Additive Manufacturing Letters
Published
2024-09-14
DOI
https://doi.org/10.1016/j.addlet.2024.100241
Citations
6
Primary Topic
Additive Manufacturing and 3D Printing Technologies
Type
article
Field-Weighted Citation Impact
1.22
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article

Deep learning based automated quantification of powders used in additive manufacturing

K.V. Mani Krishna, Narendra B. Dahotre, Amrutha Anantatamukala
6 citations
Additive Manufacturing Letters
Additive Manufacturing and 3D Printing Technologies
1.22
article

Deep learning based automated quantification of powders used in additive manufacturing

K.V. Mani Krishna, Narendra B. Dahotre, Amrutha Anantatamukala
article en
6 citations

Abstract

• Machine Learning (ML) based segmentation of powder particle imagery achieved. • Overlapping particles could be successfully delineated. • Particle size through ML based technique was within 7 % of standard measurement methods. • Additional shape parameters of circularity and aspect ratio were determined. This study proposes a novel deep learning technique for efficient powder morphology characterization, crucial for successful additive manufacturing. The method segments powder particles in microscopy images using Pix2Pix image translation model, enabling precise quantification of size distribution and extraction of critical morphology parameters like circularity and aspect ratio. The proposed approach achieves high accuracy (Structural Similarity Index of 0.8) and closely matches established methods like laser diffraction in measuring particle size distribution (within a deviation of ∼7 %) and allows determination of additional particle attributes of aspect ratio and circualarity in a reliable, repeated, and automated way. These findings highlight the potential of deep learning for automated powder characterization, offering significant benefits for optimizing additive manufacturing processes.

Additive Manufacturing LettersVol. 11
University of North Texas (US)
Openalex Percentile: Top 22%
Additive Manufacturing and 3D Printing Technologies
1.22
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