Abstract
Additive manufacturing (AM) is rapidly growing owing to its high design freedom, better buy-to-fly ratios, and reduced fabrication time. The notable advantages and technological improvements made additive manufacturing employed in several industrial sectors. However, its acceptability in industries primarily depends on developed/improved mechanical properties. In response to this, significant research has been carried out to study the mechanical properties of parts produced by different AM routes, and also, the properties are well correlated with the microstructure, processing routes, and process parameters. Wear is another crucial aspect that limits the system's service life and performance. However, the influence of wear on the failure of additively manufactured parts is not well reported. Therefore, the current review aims to discuss the microstructural and tribological aspects of various additively manufactured parts and their dependence on process parameters, reinforcements, and heat treatment conditions. Also, this paper addresses the influence of fabrication routes on microstructures and the wear behavior of various alloy systems. The study concludes that it is important to understand the wear behavior and wear mechanism of AM parts' to positively control the process parameters and microstructure to reduce wear loss.
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We acknowledge the support from the Aerospace Research and Development Board of Government of India under Grant No. ARDB/01/2031958/M/I.
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Hemachandra, M., Thapliyal, S. & Adepu, K. A review on microstructural and tribological performance of additively manufactured parts. J Mater Sci 57, 17139–17161 (2022). https://doi.org/10.1007/s10853-022-07736-1
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DOI: https://doi.org/10.1007/s10853-022-07736-1