ABSTRACT
The introduction of 3D printing might change the dynamics of market rivalry. Industrial 3D printing places a premium on mechanical performance above tribological performance. Wear, friction, and lubrication may all be influenced by tribology. Tribology in 3D printing for business: Buying 3D-printed objects using SLS, FDM, or stereolithography is possible. Tribology in 3D-printed components is affected by material, orientation, layer thickness, and post-processing. Wear and friction modelling for 3D-printed parts: Materials, including polymers, metals, and composites, are studied in relation to tribology and wear. Tribology may be altered by polishing and coating surfaces. Bonding of 3D-printed parts and the absence of inconsistencies, flaws, or anisotropy: Tribology might be enhanced by adjusting the printing parameters, using wear-resistant materials, and experimenting with alternative lubrication strategies. Tribology is impacted by 3D printing’s use in manufacturing. Production facilities are affected by printing, material quality, and tribology. Both 3D printing and industrial tribology are discussed in this chapter using bibliometric data from 2018 to 2023 to help advance 3D printing and tribological research across several disciplines.
