Altana Launches 10 Resin-Based Cubic Ink Materials for 3D printing
The new resins in the Cubic Ink family of 3D printing materials are focused on system-open and industry-applicable additive manufacturing across DLP, LCD and SLA technologies.
Altana says it is giving shape to new ideas by enabling additive manufacturers to turn product designs into reality with its new and enhanced resin-based Cubic Ink 3D printing materials. Among them is a material for stereolithography (SLA) applications — Cubic Ink High-Performance 2-1400 VP.
With the new products, specialty chemicals group Altana says it is significantly extending its Cubic Ink 3D printing material family for high-performance resins. The expansion positions the company as a supplier of manufacturer-independent, open-system materials suitable for Digital Light Processing (DLP), Liquid Crystal Display (LCD) and SLA applications, as well as inks for material jetting.
The company says this development unlocks entirely new opportunities for users, particularly in the automotive and aerospace sectors. It is also a boon for the medical technology field, encompassing audiology, dental medicine and orthopedics as it can enhance their product manufacturing processes.
“Altana is focusing its Cubic Ink family of 3D printing materials on system-open and industry-applicable additive manufacturing across DLP, LCD and SLA technologies,” says Dr. Max Röttger, head of Cubic Ink. “Our customers reap the rewards of our extensive solution expertise in pioneering high-performance materials. Furthermore, we offer dedicated support to our customers in the development and formulation of high-performance inkjet inks for material jetting.”
Mold 210 VP and 601 VP are two materials in the Cubic Ink series which were designed for resin printing. These materials offer a multitude of advantages in both the printing process and postprocessing stages. The materials are used, for example, in the manufacture of hearing aids. Their low viscosity enables rapid printing, and the printed molds can be effectively cleaned using common washing solvents, such as IPA. Furthermore, after approximately 10 minutes of UV post-exposure, these materials are ready for filling with the corresponding molding compound.
Another innovative material is the Cubic Ink High-Performance 4-1301 VP for medical technology applications. The material has been tested for its non-cytotoxic properties by accredited testing laboratories for medical technology. The results of these tests show the material is well-suited for medical technology applications with direct skin contact, such as orthoses for fingers or arms.
Cubic Ink High Performance 4-2800 VP-ESD debuts in the segment of electrostatic dissipative materials (ESD)-compliant, or antistatically designed, printing materials. The resin is engineered for crafting items that possess electrostatic dissipative properties, effectively mitigating the risk of sudden voltage discharges in sensitive electronic components. These materials are used primarily in the handling and manufacture of electrical or electronic components, shielding them from damage caused by uncontrolled electrostatic voltage discharges.
This resin can be processed efficiently and swiftly because of its low viscosity. After printing, it can be cleaned with water and exhibits commendable mechanical properties following posttreatment. It also has good reactivity and electrical conductivity, with a surface resistance of 1.8 × 107 Ωcm, as measured under laboratory conditions.
Cubic Ink High-Performance 4-2100 VP features exceptional impact strength and heat resistance. This low-viscosity material enables fast and precise printing, while its flexibility makes it especially well suited for the manufacture of production aids, including sturdy internal components for industrial grippers.
- To learn more about the multitude of materials used in additive manufacturing, check out our Materials section.
- Read more about Material Jetting in this overview from Tim Simpson, a Paul Morrow Professor of Engineering Design & Manufacturing at Pennsylvania State University.
Related Content
What Does Additive Manufacturing Readiness Look Like?
The promise of distributed manufacturing is alluring, but to get there AM first needs to master scale production. GKN Additive’s Michigan facility illustrates what the journey might look like.
Read More3D Printing with Plastic Pellets – What You Need to Know
A few 3D printers today are capable of working directly with resin pellets for feedstock. That brings extreme flexibility in material options, but also requires greater knowledge of how to best process any given resin. Here’s how FGF machine maker JuggerBot 3D addresses both the printing technology and the process know-how.
Read MoreUnderstanding PEKK and PEEK for 3D Printing: The Cool Parts Show Bonus
Both materials offer properties desirable for medical implants, among other applications. In this bonus episode, hear more from Oxford Performance Materials and Curiteva about how these companies are applying PEKK and PEEK, respectively.
Read MoreLarge-Format “Cold” 3D Printing With Polypropylene and Polyethylene
Israeli startup Largix has developed a production solution that can 3D print PP and PE without melting them. Its first test? Custom tanks for chemical storage.
Read MoreRead Next
Postprocessing Steps and Costs for Metal 3D Printing
When your metal part is done 3D printing, you just pull it out of the machine and start using it, right? Not exactly.
Read MoreCarnegie Mellon Helps Industry, Students Prepare for a Manufacturing Future with AM and AI
Work underway at the university’s Next Manufacturing Center and Manufacturing Futures Institute is helping industrial additive manufacturers achieve success today, while applying artificial intelligence, surrogate modeling and more to solve the problems of the future.
Read More3MF File Format for Additive Manufacturing: More Than Geometry
The file format offers a less data-intensive way of recording part geometry, as well as details about build preparation, material, process and more.
Read More