Removable Partial Dentures (RPDs) have long been a reliable solution for patients missing several teeth, offering both functional and aesthetic benefits. Traditionally, RPDs have been made using manual techniques that rely on casting metals like cobalt-chrome (CoCr) alloys. However, the integration of metal 3D printing technology has dramatically transformed the production of these dentures. With the use of biocompatible materials such as titanium and cobalt-chrome-tungsten (CoCrW), dentists and dental labs can now create highly customized, precise, and durable RPDs in significantly less time, improving both patient satisfaction and overall treatment outcomes.
Titanium and CoCrW have emerged as ideal materials for 3D-printed RPDs due to their exceptional strength, biocompatibility, and corrosion resistance. Titanium, known for its lightweight properties and excellent integration with bone, offers patients a comfortable and long-lasting option for their RPD frameworks. CoCrW, an alloy composed of cobalt, chromium, and tungsten, provides superior hardness and durability, making it an excellent choice for withstanding the forces of chewing while maintaining the appliance's structure. Both materials ensure that the resulting dentures are not only strong and stable but also hypoallergenic, which is vital for patients with sensitivities to certain metals.
The introduction of metal 3D printing in the fabrication of RPDs has revolutionized the level of precision and customization available. By using advanced 3D scanning and CAD (computer-aided design) technology, dental professionals can create detailed digital models of a patient's mouth. These models are then translated into exact-fitting RPDs using additive manufacturing techniques. This process eliminates the need for traditional wax molds and casting, ensuring that each denture is uniquely tailored to the patient's specific dental structure, resulting in a better fit and enhanced comfort.
One of the most significant advantages of 3D-printed RPDs is the reduced production time. Traditional methods could take weeks, involving multiple appointments for adjustments and fittings. With 3D printing, the turnaround time is drastically shortened, allowing dentists to deliver high-quality, custom RPDs in a matter of days. This not only reduces the waiting time for patients but also minimizes the need for post-fitting modifications. As a result, patients enjoy faster, more comfortable treatments, while dental labs benefit from increased efficiency and cost-effectiveness, making 3D-printed RPDs the future of removable partial dentures.
Dental framework made of titanium or cobalt chrome, delivered polished, sandblasted or unpolished.
Reinforcement grid made of titanium or cobalt chrome, delivered polished, sandblasted or unpolished.
Tertiary structure made of titanium or cobalt chrome, delivered polished, sandblasted or unpolished.
Repair part for dental framework made of titanium or cobalt chrome, delivered polished, sandblasted or unpolished.
3D-printed metal brings significant advantages to orthodontics, benefiting both the orthodontic team and patients. The ability to create highly customized designs through digital workflows enhances treatment efficiency, allowing for faster and more accurate fittings. This precision reduces the need for manual adjustments and ensures a more tailored fit, improving overall outcomes. Unlike traditional metal bands, which often require separators to create space between teeth before placement, 3D-printed metal appliances eliminate this step. This not only saves valuable chair time for orthodontists but also spares patients from the discomfort of wearing separators. As a result, the patient experience is significantly enhanced, providing a more comfortable and streamlined treatment process. The combination of flexibility in design, time savings, and improved comfort makes 3D metal printing an attractive innovation in orthodontic care.
Band made of titanium or cobalt chrome, delivered polished, sandblasted or unpolished.
Band with extension made of titanium or cobalt chrome, delivered polished, sandblasted or unpolished.
Gap holder made of titanium or cobalt chrome, delivered polished, sandblasted or unpolished.
Herbst appliance made of titanium or cobalt chrome, delivered polished, sandblasted or unpolished.
Retainer made of titanium or cobalt chrome, polished, sandblasted or unpolished.
Lingual bow / transpalatin bow made of titanium or cobalt chrome, delivered polished, sandblasted or unpolished.
Disjoncteur pour expansion palatine en titane ou chrome cobalt, disponible dégrossi ou poli.
Fully anatomical crown and bridge up to 16 units Crown and bridge up to 16 units for veneering Telescopic reconstruction Implant-supported superstructure Bar
Crown, coping and bridge up to 16 units made of titanium or cobalt chrome, delivered polished, sandblasted or unpolished
Implant-supported superstructure made of titanium or cobalt chrome, polished, sandblasted or unpolished.
Implant bar made of titanium or cobalt chrome, delivered polished, sandblasted or unpolished.
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Route de Chandoline 27
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