A review on advancements in applications of fused deposition modelling process

• Published in: Rapid prototyping journal Vol. 26; no. 4; pp. 669 - 687
• Main Authors: T, Sathies, P, Senthil, M.S, Anoop
• Format: Journal Article
• Language: English
• Published: Bradford Emerald Publishing Limited 14.05.2020; Emerald Group Publishing Limited
• Subjects: Additive manufacturing; Biocompatibility; Biodegradability; Carbon black; Case studies; Conducting polymers; Customization; Deposition; Drug delivery systems; Finishing; Fluorides; Fused deposition modeling; Laser sintering; Microfluidic devices; Orthoses; Polylactic acid; Polymer matrix composites; Polymers; Polyvinyl alcohol; Prostheses; Rapid prototyping; Rapid tooling; Researchers; Scaffolding; Sensors; Shielding; Solvents; Three dimensional composites; Three dimensional printing; Tooling; Drug delivery devices; 4D printing; Sensors; Scaffold; Rapid tooling; Fused deposition modelling
• ISSN: 1355-2546; 1758-7670
• DOI: 10.1108/RPJ-08-2018-0199

Purpose Fabrication of customized products in low volume through conventional manufacturing incurs a high cost, longer processing time and huge material waste. Hence, the concept of additive manufacturing (AM) comes into existence and fused deposition modelling (FDM), is at the forefront of researches related to polymer-based additive manufacturing. The purpose of this paper is to summarize the research works carried on the applications of FDM. Design/methodology/approach In the present paper, an extensive review has been performed related to major application areas (such as a sensor, shielding, scaffolding, drug delivery devices, microfluidic devices, rapid tooling, four-dimensional printing, automotive and aerospace, prosthetics and orthosis, fashion and architecture) where FDM has been tested. Finally, a roadmap for future research work in the FDM application has been discussed. As an example for future research scope, a case study on the usage of FDM printed ABS-carbon black composite for solvent sensing is demonstrated. Findings The printability of composite filament through FDM enhanced its application range. Sensors developed using FDM incurs a low cost and produces a result comparable to those conventional techniques. EMI shielding manufactured by FDM is light and non-oxidative. Biodegradable and biocompatible scaffolds of complex shapes are possible to manufacture by FDM. Further, FDM enables the fabrication of on-demand and customized prosthetics and orthosis. Tooling time and cost involved in the manufacturing of low volume customized products are reduced by FDM based rapid tooling technique. Results of the solvent sensing case study indicate that three-dimensional printed conductive polymer composites can sense different solvents. The sensors with a lower thickness (0.6 mm) exhibit better sensitivity. Originality/value This paper outlines the capabilities of FDM and provides information to the user about the different applications possible with FDM.