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Multi-Material Additive Manufacturing: Creating IN718-AISI 316L Bimetallic Parts by 3D Printing, Debinding, and Sintering

by Tanya Fosdal | Aug 2, 2023 | research papers

Multi-Material Additive Manufacturing Creating IN718-AISI 316L Bimetallic Parts by 3D Printing, Debinding, and SinteringDownload
Multi-Material Additive Manufacturing Creating IN718-AISI 316L Bimetallic Parts by 3D Printing, Debinding, and SinteringDownload

Paper published to MDPI on 2 August 2023 https://www.mdpi.com/2071-1050/15/15/11911

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Understanding Multi-Material Additive Manufacturing

Multi-material additive manufacturing is a revolutionary approach that allows for the creation of complex parts using different materials in a single print job. This technique enhances the functionality and performance of components by combining materials with distinct properties, such as strength, flexibility, and thermal resistance.

For instance, the combination of IN718 and AISI 316L in bimetallic parts leverages the high-temperature resistance of IN718 with the corrosion resistance of AISI 316L, making it ideal for applications in aerospace and medical industries. This innovative method expands the possibilities of design and application in 3D printing.

Key Processes in Bimetallic 3D Printing

The production of bimetallic parts through 3D printing involves several critical processes: debinding and sintering. Debinding is the removal of the binder material used in the printing process, while sintering involves heating the printed part to fuse the metal particles together without melting them completely.

These processes are essential for achieving the desired mechanical properties and structural integrity of the final product. For example, proper sintering can enhance the density and strength of the bimetallic part, making it suitable for high-stress applications.

Applications of IN718 and AISI 316L Bimetallic Parts

Bimetallic parts composed of IN718 and AISI 316L are increasingly used in various industries, including aerospace, automotive, and medical. Their unique combination of properties allows for innovative designs that can withstand extreme conditions while providing essential functionalities.

In the aerospace sector, these parts can be utilized in engine components and structural elements, where both high strength and corrosion resistance are critical. Similarly, in the medical field, they can be used for implants that require durability and biocompatibility, showcasing the versatility of multi-material additive manufacturing.

Research Insights on Multi-Material Additive Manufacturing

The research paper titled "Multi-Material Additive Manufacturing: Creating IN718-AISI 316L Bimetallic Parts by 3D Printing, Debinding, and Sintering" provides valuable insights into the advancements in this field. It explores the methodologies employed and the outcomes observed during the experimentation phase.

By examining the results, researchers can identify best practices and potential challenges in the production of bimetallic components. The findings contribute to the body of knowledge in additive manufacturing, guiding future innovations and applications in the industry.