title: Emerging Applications of Bedside 3D Printing in Plastic Surgery.
abstract: Modern imaging techniques are an essential component of preoperative planning in plastic and reconstructive surgery. However, conventional modalities, including three-dimensional (3D) reconstructions, are limited by their representation on 2D workstations. 3D printing, also known as rapid prototyping or additive manufacturing, was once the province of industry to fabricate models from a computer-aided design (CAD) in a layer-by-layer manner. The early adopters in clinical practice have embraced the medical imaging-guided 3D-printed biomodels for their ability to provide tactile feedback and a superior appreciation of visuospatial relationship between anatomical structures. With increasing accessibility, investigators are able to convert standard imaging data into a CAD file using various 3D reconstruction softwares and ultimately fabricate 3D models using 3D printing techniques, such as stereolithography, multijet modeling, selective laser sintering, binder jet technique, and fused deposition modeling. However, many clinicians have questioned whether the cost-to-benefit ratio justifies its ongoing use. The cost and size of 3D printers have rapidly decreased over the past decade in parallel with the expiration of key 3D printing patents. Significant improvements in clinical imaging and user-friendly 3D software have permitted computer-aided 3D modeling of anatomical structures and implants without outsourcing in many cases. These developments offer immense potential for the application of 3D printing at the bedside for a variety of clinical applications. In this review, existing uses of 3D printing in plastic surgery practice spanning the spectrum from templates for facial transplantation surgery through to the formation of bespoke craniofacial implants to optimize post-operative esthetics are described. Furthermore, we discuss the potential of 3D printing to become an essential office-based tool in plastic surgery to assist in preoperative planning, developing intraoperative guidance tools, teaching patients and surgical trainees, and producing patient-specific prosthetics in everyday surgical practice.
authors.affiliation: 3D PRINT Laboratory, Department of Surgery, Peninsula Health , Frankston, VIC , Australia ; Monash University Plastic and Reconstructive Surgery Group (Peninsula Clinical School), Peninsula Health , Frankston, VIC , Australia.
authors.forename: Michael P
authors.initials: MP
authors.lastname: Chae
authors.affiliation: 3D PRINT Laboratory, Department of Surgery, Peninsula Health , Frankston, VIC , Australia ; Monash University Plastic and Reconstructive Surgery Group (Peninsula Clinical School), Peninsula Health , Frankston, VIC , Australia.
authors.forename: Warren M
authors.initials: WM
authors.lastname: Rozen
authors.affiliation: Department of Anatomy and Developmental Biology, Centre for Human Anatomy Education, School of Biomedical Sciences, Faculty of Medicine, Nursing and Health Sciences, Monash University , Clayton, VIC , Australia.
authors.forename: Paul G
authors.initials: PG
authors.lastname: McMenamin
authors.affiliation: 3D PRINT Laboratory, Department of Surgery, Peninsula Health , Frankston, VIC , Australia ; Department of Surgery, Stanford University , Stanford, CA , USA.
authors.forename: Michael W
authors.initials: MW
authors.lastname: Findlay
authors.affiliation: 3D PRINT Laboratory, Department of Surgery, Peninsula Health , Frankston, VIC , Australia.
authors.forename: Robert T
authors.initials: RT
authors.lastname: Spychal
authors.affiliation: 3D PRINT Laboratory, Department of Surgery, Peninsula Health , Frankston, VIC , Australia ; Monash University Plastic and Reconstructive Surgery Group (Peninsula Clinical School), Peninsula Health , Frankston, VIC , Australia.
authors.forename: David J
authors.initials: DJ
authors.lastname: Hunter-Smith
keywords: 3D printing; bedside; cost; desktop application; education; intraoperative guidance; plastic and reconstructive surgery; preoperative planning