High-Precision Dental Milling Machines: Features, Materials and Price
A milling machine may shape the final restoration, but precision is decided long before the spindle begins to move. The quality of the scan, the CAD design, the selected material, the CAM strategy and the sintering cycle all leave their mark on the result.
DEPRAG Dental and Yucera address different parts of this process. DEPRAG supplies laboratory scanners, zirconia discs and 3D printing resins, while Yucera offers scanners, milling machines and furnaces for digital production. Together, their products can support a connected workflow from the physical model to the finished restoration.
At Dentiverse, we work with dental laboratories, technicians and clinics that need more than a list of technical specifications. The right solution must match the laboratory’s case volume, preferred materials, existing equipment and plans for growth. This guide looks at where DEPRAG and Yucera fit within that decision and what should be checked before their products are brought into the same workflow.
Precision Is Built Across the Entire Dental CAD/CAM Process
Dental CAD/CAM technology connects several production stages, but it does not remove the differences between them. Each stage produces information or modifies material. An error introduced during scanning may remain in the digital model. A poorly selected CAM strategy can affect margins and surface quality. An unsuitable sintering cycle can change the dimensions and final properties of zirconia after milling is complete.
Laboratory scanners begin the process by capturing impressions, models, dies or complete arches as three-dimensional data. CAD software turns that information into a restoration design, while CAM software determines how the machine will mill it. The chosen material then introduces its own requirements for tools, shrinkage compensation, processing and thermal treatment.
Advanced solutions can automate parts of this work and reduce hands-on production time. Automation, however, is most valuable when the individual components are correctly configured. A fast scanner cannot compensate for an unsuitable material profile, just as a powerful spindle cannot correct a flawed digital design. Reliable production comes from control across the entire process.

DEPRAG Dental Materials for Modern Laboratory Workflows
DEPRAG Dental was founded in 1996 and develops materials and smart equipment for restorative, orthodontic and implant dentistry. Its wider portfolio includes scanners, milling equipment, 3D printing products, furnaces and dental materials used by laboratories around the world.
Within the current Dentiverse collection, the strongest emphasis falls on Gemstone zirconia discs, the DS7 laboratory scanner and dental printing resins. This combination allows us to discuss Deprag CAD solutions from two useful perspectives: the quality of the digital input and the behavior of the material selected for production.
Choosing Deprag CAD/CAM Zirconia for Different Restorations
Zirconia is valued for its mechanical strength, biocompatibility and suitability for digital processing. Yet zirconia discs do not all behave in the same way. Their composition influences translucency, strength, color transition and the types of restorations for which they are best suited.
Gemstone ST is a 3Y zirconia positioned for cases in which strength carries greater weight. According to the manufacturer’s published data, it offers flexural strength of 1,250 MPa and translucency of 42%. This balance makes it relevant for posterior work and larger restorations that face higher functional demands.
Gemstone SHT moves further toward esthetics, with listed values of 1,150 MPa and 47% translucency. The difference may appear modest on paper, but it can matter in visible areas where the restoration must interact more naturally with light.
Gemstone 3D Pro takes another approach. Its multilayer structure combines 3Y, 4Y and 5Y zirconia, with five material layers and a nine-step shade gradient. The manufacturer lists translucency between 42% and 57% and flexural strength reaching 1,200 MPa. This creates a transition from a stronger cervical zone toward a more translucent incisal area.
Higher translucency is not automatically the better choice. A technician planning an anterior crown, a posterior bridge and an implant-supported restoration is solving three different material problems. The indication, restoration geometry, connector dimensions and expected load must guide the selection.
Laboratory Scanning as the Starting Point
The DS7 laboratory scanner gives DEPRAG a place at the beginning of the digital workflow. It is designed to capture models and impressions and export commonly used STL, PLY and OBJ files. These formats give laboratories room to connect the scanner with compatible design and production software.
DEPRAG reports accuracy of 8 μm and a full-arch scanning time of around ten seconds. These are manufacturer specifications rather than independent clinical measurements, but they show the intended position of the scanner: rapid data capture with enough detail for daily laboratory work.
DEPRAG also supplies 3D printing resins for model production, orthodontic applications and temporary restorations. Dental 3D printing can shorten some production stages and make rapid prototyping more practical. The resin still needs to be chosen according to its approved indication, mechanical properties and validated washing and curing protocol.
What a Yucera Milling Machine Brings to Digital Production
Yucera develops dental materials and equipment for scanning, milling, printing and thermal processing. For laboratories reviewing its current range at Dentiverse, the central question is not simply which machine has the longest specification sheet. It is which Yucera milling machine can handle the laboratory’s real mix of materials and cases.
The two available models serve different production priorities. YRC-5X focuses on dry milling, while YRC-8PRO brings dry and wet processing into a single system.
YRC-5X for Focused Dry Milling
YRC-5X is a five-axis dry dental milling machine developed for materials such as zirconia, PMMA, wax, PEEK and compatible composites. It is particularly relevant to laboratories where zirconia restorations account for a substantial share of daily output.
Five-axis movement gives the tools better access to complex restoration geometry and allows the CAM software more freedom when positioning a case inside the disc. This can be useful for undercuts, varied insertion paths and restorations that would be difficult to approach within a more restricted axis configuration.
Dry milling also keeps the workflow focused. A laboratory working primarily with zirconia and polymer-based materials may not need a wet processing system. Its priorities may instead be dependable spindle operation, dust management, tool life and consistent production across repeated cases.
YRC-8PRO for Dry and Wet Milling
YRC-8PRO is an all-in-one dry and wet dental milling machine. In addition to zirconia, PMMA and wax, wet processing extends the variety of compatible materials to options such as glass ceramics and lithium disilicate.
This matters when a laboratory handles different types of restorative work and wants to keep more production in-house. A single machine capable of moving between dry and wet processes may reduce the need to divide cases between separate units or external partners.
Material versatility should still be judged carefully. The presence of a wet mode does not make every block or blank automatically compatible. Tool selection, cooling requirements, CAM parameters and the machine holder must correspond to the material being processed. High-performance spindles support stable operation, but software configuration and routine maintenance remain equally important.
Beyond Milling: Scanning, Sintering and Process Control
Yucera’s laboratory scanners expand the workflow before milling begins. They capture detailed 3D images of models and impressions, allowing technicians to create digital files for design and communication with the clinic. A clear digital model can make corrections easier to identify before time and material are committed to production.
After milling, zirconia remains in a partially sintered state and must pass through a controlled thermal cycle. Sintering furnaces reach the high temperatures required for densification, allowing the restoration to develop its final dimensions, strength and optical properties.
Yucera’s HS007 furnace is promoted with a 40-minute rapid cycle, but this figure applies specifically to the manufacturer’s compatible 3D FLASH zirconia protocol. It should not be treated as a universal cycle for every zirconia disc. Faster processing only creates value when the material has been validated for the temperature curve, holding time and cooling sequence being used.

How Deprag CAD/CAM Materials and Yucera Equipment Can Work Together
DEPRAG materials and Yucera equipment can occupy complementary positions within a laboratory, but they should not be described as a single manufacturer-validated system. Compatibility must be checked for every material and machine configuration.
A zirconia disc may have the correct diameter and still require further verification. Its thickness must fit the holder and the planned restoration. The CAM software needs the correct shrinkage factor and material profile. The selected burs must suit the zirconia, while the sintering program must follow the disc manufacturer’s requirements.
Shrinkage compensation deserves particular attention. Zirconia restorations are milled larger than their intended final dimensions because the material contracts during sintering. If the CAM profile does not reflect the value assigned to the individual disc, the finished restoration may not match the design accurately.
An open digital workflow provides freedom to choose between a wider range of products. It also places more responsibility on the laboratory to verify settings instead of assuming that physical fit equals technical compatibility.
Choosing the Right CAD/CAM Setup for Your Laboratory
The right configuration begins with the work already moving through the laboratory. A business producing mainly zirconia crowns and bridges may benefit from a focused dry milling process. A laboratory handling glass ceramics alongside zirconia may find greater value in a combined dry and wet machine.
Case volume matters as much as material variety. Tool capacity, milling speed and automation influence productivity, but so do loading, cleaning, maintenance and the time required to move between materials. Existing scanners, CAD software and furnaces should also be considered before new equipment is introduced.
Our team can help you compare DEPRAG materials and Yucera equipment against the restorations you produce, the digital systems you already use and the production capacity you want to develop.
Questions About DEPRAG and Yucera CAD/CAM Solutions
What does DEPRAG Dental offer for digital laboratories?
DEPRAG Dental offers zirconia discs, laboratory scanners, 3D printing resins and a wider range of digital equipment and materials. The current Dentiverse collection includes Gemstone zirconia, the DS7 scanner and resins for models, orthodontic work and temporary restorations.
What materials can a Yucera milling machine process?
The answer depends on the model. YRC-5X is designed for dry milling of zirconia, PMMA, wax, PEEK and compatible composites. YRC-8PRO supports dry and wet processing, extending the material range to glass ceramics and lithium disilicate where compatibility is confirmed.
What is the difference between YRC-5X and YRC-8PRO?
YRC-5X is a five-axis dry milling machine suited to laboratories focused on zirconia and other dry-process materials. YRC-8PRO combines dry and wet milling for a broader mix of restorative materials.
Can DEPRAG zirconia be milled with Yucera equipment?
It can be used when the disc dimensions, holder, CAM profile, shrinkage factor and processing requirements are compatible with the selected Yucera machine. The sintering cycle must also follow the technical instructions for the specific DEPRAG zirconia material.