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8 Reasons Why Additive Manufacturing Complements Traditional Technologies

In the world of manufacturing, the integration of new technologies has been a pillar to maintain competitiveness in the increasingly demanding and dynamic global market. The adoption of new tools often seeks to improve efficiency, reduce time and costs, and…

Additive manufacturing traditional manufacturing
3Dnatives

In the world of manufacturing, the integration of new technologies has been a pillar to maintain competitiveness in the increasingly demanding and dynamic global market. The adoption of new tools often seeks to improve efficiency, reduce time and costs, and improve manufactured parts. Additive manufacturing, for example, is being integrated as a transformative technology in industries with an entrenched use of traditional processes. Whether as a complementary tool or integrated into hybrid systems, additive manufacturing is compatible with conventional methods.

Traditional manufacturing remains the method of mass production, however, it faces challenges related to sustainability, flexibility in design and efficiency in the use of materials. Despite this, its ability to produce large volumes at low cost remains unsurpassed in many cases. The need to innovate and adapt to modern demands is driving the adoption of technologies that perfect processes, such as additive manufacturing. Recognizing the importance of getting the best of both worlds, here we explore 8 reasons why additive manufacturing complements other production methods.

1. Rapid Prototyping

Rapid prototyping benefits traditional manufacturing methods on several levels. For one, iterations serve to validate designs before mass-producing final parts. Rapid prototyping is especially useful in industries such as automotive and aerospace for aerodynamic and performance testing. 3D prototypes can be tested in wind tunnels or simulators to evaluate performance before the final part is manufactured using conventional materials and processes. Additionally, 3D prototypes can be used to validate traditional manufacturing tools such as molds for injection molding, patterns for casting, or critical components in machining.