A review published in January 2026 in the Journal of Esthetic and Restorative Dentistry concludes that 3D printing is feasible for removable dentures, frameworks and occlusal devices, with current applications already showing clinical benefit in removable prosthodontics.

Current clinical applications and outcomes

3D-printed complete dentures now achieve fit and patient satisfaction comparable to conventional or milled alternatives, often requiring fewer appointments. The technology also enables high reproducibility through digital archiving, supporting fabrication of copy dentures. For removable partial denture frameworks and implant overdentures, metal 3D-printing technologies such as selective laser melting produce cobalt-chromium or titanium alloy frameworks with favourable fit and promising mechanical performance, reducing laboratory effort compared with conventional casting. 3D printing of occlusal splints is already widely used, offering high accuracy, straightforward reproducibility and quick replacement, particularly valuable for patients with bruxism or temporomandibular disorder.

Multi-material and multilayer 3D printing is expanding prosthetic possibilities. In complete dentures, printing denture bases and teeth in a single build reduces bonding and assembly steps while improving efficiency and structural integrity.

Limitations and future developments

Material performance and standardisation remain challenges. Printed denture base resins sometimes exhibit inferior mechanical properties compared with milled polymethyl methacrylate, including reduced flexural strength, hardness and bond strength. Long-term clinical data on durability, wear, discoloration and microbial colonisation are lacking, and variability in printing parameters and post-processing contributes to heterogeneous outcomes.

Researchers anticipate progress in three areas. Multi-material and hybrid manufacturing will produce more robust monolithic dentures and hybrid polymer-metal structures. Artificial intelligence-driven design will increase automation in data segmentation, tooth arrangement and quality control, with CAD platforms combining intra-oral scans with facial and radiographic records. Material advances will include reinforced, antimicrobial and resilient resins, plus emerging applications such as sensor integration for bruxism monitoring and stimuli-responsive dentures that adapt to ridge resorption.