Fully edentulous patients want both the stability of a fixed solution and the easier hygiene of a removable prosthesis.
By providing the friction-retained, conometric retention of the ATLANTIS Conus concept, your clinical partners no longer need to compromise on a secure fit or simplified maintenance for their patients.
When delivering innovative solutions – a little friction is a good thing.
Setting your laboratory apart–implant-supported restorative innovations.
As the popularity of dental implant treatment increases, it is becoming more crucial to provide the most advanced digital solutions, innovative products and simplified services to competitively meet the needs of your clinical partners and the patients they serve.
Compatible for all major implant systems, the ATLANTIS Conus concept is a patient-specific, conometric implant-supported dental prosthesis that uses a tapered cone design to retain a cap on the abutment by surface friction. The telescopic abutment design and manufacturing standards provide a stable yet removable non-resilient prosthesis.
Save valuable time and efficiency through the precise design and manufacturing standards, with the innovative ATLANTIS Conus concept.
A new solution for screw-retained restorations.
ATLANTIS™ CustomBase solution combines an ATLANTIS patient-specific, screw-retained abutment and core file with screw access hole already indicated.
As with all ATLANTIS solutions, the ordering process remains consistent and convenient through ATLANTIS WebOrder. In addition, it eliminates the need for an inventory of stock component.
5 workflows changed by 3D printing
Model making. This is the most common use (so far) for 3D printing. Whereas models used to require time to mix stone and then careful setup, models can now be printed using the same CAD file used to create the restoration. It’s an easy way to naturally fit 3D printing into a digital workflow. Plus, it provides a great visual aid for dentists—and a bonus technological marvel for patients to take home.
Wax-ups. Using wax and burning it out has been a tried-and-true prosthetic and restorative method for many labs for decades. But it’s also time-consuming, and due to the materials used, is prone to annoying failures—plus, it can be boring to do!
PFMs. While “printing” metal isn’t really possible, there is laser technology that “builds” metal frameworks or pieces, and usually this technology (SLM or SLA) is grouped in with 3D printers. This technology has allowed dentists and dental technicians who prefer to work with PFMs an option to retain that method while going to a more digital process. Plus, there are several outsourcing partners out there who can “print” straight from an STL file and provide dental professionals with frameworks for a variety of indications.
Temporaries. As more materials are approved by the FDA for in-mouth use, it’s becoming increasingly possible to provide instantaneous temporary solutions for patients. This can allow immediate smile esthetics while patients are healing or waiting for restorations/prostheses and can help patients visualize what the final results will look like.
Dental implants. Surgery for dental implants can often be “free-handed” when drilling, but some implant cases require precision and accuracy. An excellent way to ensure that kind of care is a surgical guide. And now, thanks to the combination of CBCT scans overlaid with digital mouth/teeth scans, it’s possible to create a custom surgical guide for each implant case that takes into account bone level, tooth/root placement, and nerve locations. A surgical guide can be used during the implant workflow to ensure successful osseointegration and a much better patient experience.
The state of 3D printing.
One dental lab manager explores the reality of printing technology in dentistry.
Digital technology is creating workflows never seen before in the dental industry. The pathways of sharing information and collaborating on cases are becoming more abundant and easier to use. As members of the restorative team strive for more accuracy in all aspects of the process, from implant placement, impression taking and prosthesis creation, one tool that is sure to get used more often is 3D printing. There are very few things that have advanced as quickly as 3D printing over the past few years.
This advancement has come from the convergence of hardware and material development happening simultaneously.
Along with this external development, the people using the 3D printers have also learned to optimize both the files they are printing and the machines they are using. The amazing thing is that this could just be the tip of the iceberg as it relates to 3D printing.
As material manufacturers continue to strive for government approval for intraoral use, the printer and software companies, and the forward-thinking people operating the machines continue to gain knowledge of the possibilities offered by additive manufacturing. This technology will grow exponentially. A large barrier to 3D printing has typically been the cost of entry. Most labs are not willing or able to spend over a hundred thousand dollars on printing models or restorations for lost wax technique processes. This gives the impression to the labs that they are paying high prices for what is typically low-cost parts.
In the laboratory business mind, this is very counter-intuitive: Why do we need to spend significant amounts of money to do something we pay very little to do now? But the missing aspect of this line of thinking is the potential for labor saving by digitally designing a larger number of restorations.
As technicians, we have been able to see the lack of crisp detail in these prints and frankly haven’t been able to trust the accuracy. This in part comes from a lack of understanding of the difference between accuracy and resolution.
The accuracy of these printed parts is now beyond what we could have imagined a few years ago.
However, we still see the resolution can certainly be improved. The difference between the two factors can easily be explained using a scale as a reference point. The resolution, in this case, would be the number of decimal places the scale can measure too. The accuracy, on the other hand, is how the weight of what is being measured is portrayed in the reading of the scale.
For example, a 10-and-one-third-pound weight put on the scale giving a reading of 10.33 pounds doesn’t have the resolution of 10.33333333333 pounds, but at the end is accurate. This is more accurate than a scale that reads 10.66666666666 pounds. This contrast is evident in models. With expansion and contraction of impression material and stone used to pour the models, a technician can see great detail, but the model is still not exact and has a degree of inaccuracy. On the other hand, the printed models from intraoral scanners are more accurate dimensionally but don’t show the same amount of details. As the printer companies continue to improve, we will see layer thickness get smaller and smaller, and thus higher and higher resolution prints. This doesn’t necessarily mean that the cost of the machines is going to increase.
There are several new companies in the 3D printing space. This includes companies that didn’t exist in dental previously and who are now making big names for themselves.
They offer high-quality printers for under $5,000. These companies were offering high-end consumer printers, thought to be expensive by the hobbyist, that through testing were found to be up to the quality standards we expect in dental at a fraction of the cost we currently expect. Looking at cost, where we once thought of these machines being in $100,000-150,000 range, we now have a price range of $5,000-150,000.
Of course, as we would expect, the more expensive machines offer significant advantages over the less expensive ones. One of these is the ability to print in different materials.
This could be an added color selection, or hardness/elasticity variability. While this has limitations, we can see how our 3D printers will morph into uses similar to what has happened with our home 2D printers. We now rarely print anything outside the home, where once photo huts littered every parking lot around us. This same thing will happen with 3D printing. In our lifetime, we could see an end of toy stores. Instead, we will purchase files off the internet to customize with colors and print at home.
The advancement in machines and materials running parallel could enable this sooner than we think. The higher end of industries leads this development because they are willing to spend the most money. F1 racing has been using 3D printing for a couple years. Boeing has more than 20,000 non-metallic additive manufactured parts on airplanes they delivered to customers.
Dental doesn’t have the capital of these other industries, and also has the hurdle of government regulations. But once the materials we would like to use, or ones that haven’t been released yet, have registered with the proper government agencies around the world, the doors will open even wider with options for these machines. For some, it may mean the printing of custom temporaries, dentures, bite splints or surgical guides. For others, maybe printing porcelain will become the norm.
Regardless of how we use the technology, the advantages of additive manufacturing will continue to be exploited for the benefit of our patients.
3D Systems’ ProJet 1200 3D Printer for Dental Labs
Dental labs are manufacturing the future with the ProJet 1200 3D printer’s combination of speed, accuracy, and throughput.
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