Sculpteo Offers RE-cycleo 3D Printed Part Recycling Program
The program offers recycling services to Sculpteo clients not only for the clients’ obsolete parts but also for production scrap.
Share
Read Next
Sculpteo’s RE-cyleo program enables its clients to recycle obsolete parts starting from the very first unit, giving the parts a second life and contributing to the development of a more sustainable sector. The program includes parts printed with Nylon PA12 and Nylon PA11.
According to the company, the recycled material will be used in the plastics industry and give a second life to the old parts that can be recycled as many times as possible. With this initiative, Sculpteo says it becomes one of the first 3D printing services to offer its clients recycling services not only for clients’ parts but also for production scrap.
Sculpteo says the recycling program is part of its commitment to more sustainable printing. As businesses move toward a better understanding of environmental issues, it has become urgent that industries like 3D printing pave the way for more sustainable solutions, the company says.
Being concerned about the environmental impact of its activity, Sculpteo has worked to make it possible to recycle its clients’ Nylon PA11 and Nylon PA12 obsolete parts. It is said 3D printing presents certain advantages compared to other plastic manufacturing processes (local on-demand production, very low material loss and more). In this continuity, Sculpteo is expanding its line of sustainable materials such as biosourced Nylon PA11. The company continues its research to make 3D printing even more sustainable and presents an interesting initiative through this program.
“With RE-cycleo, we are inaugurating a new, more responsible way of producing, where we offer clients the possibility to upgrade their products,” says Alexandre d’Orsetti, Sculpteo CEO. “It has taken decades for mass industries to develop effective recycling programs with their gigantic volumes. At Sculpteo, we can offer it from the first part.”
The recycling process entails clients sending obsolete parts to Sculpteo along with a destruction authorization. Once received, the first step of the process entails collecting and sorting the parts depending on the material (Nylon PA11 or Nylon PA12). The parts are then placed in octabins that can contain hundreds of kilos of parts. The sorted nylon waste is then crushed into pieces.
To maintain the industrial secrecy and confidentiality of its clients, Sculpteo guarantees that the grinding only happens inside its factory. The crushed material is then sent to Arkema, which will recycle it as part of its Virtucycle program. The grinded material is analyzed to ensure there is no contamination. Next comes the compounding stage where the material is remelted, chilled and cut into pellets that will be used in other industrial applications. These pellets form the final state of the new material which can now be used.
In the case of injection molding, the pellets will be melted and injected into a mold to create a new product such as car components, tennis rackets, shoes, helmets, a suitcase and more. This gives a second life to unused parts or end-of-life parts. The company says this whole process uses 100% renewable energy.
- Listen to this episode of AM Radio in which Dr. Tim Simpson and Stephanie Hendrixson discuss current research and future opportunities on AM Radio.
- Read how another additive manufacturing company is encouraging users to give priority to recycled filaments in the interests of sustainability and resource conservation.
- Here’s another episode of AM Radio. In this program, the AM writers discuss why additive manufacturing is often closely associated with sustainability and how can companies use AM to develop sustainable processes.
Related Content
MolyWorks Officially Rebrands as Continuum Powders and Appoints New CEO
As part of its rebranding, MolyWorks Materials Corp. has changed its name to Continuum Powders Corp. to become a single, unified brand that more accurately represents the future and differentiators of this sustainable metal powders company which focuses on innovation.
Read MoreEvaluating the Printability and Mechanical Properties of LFAM Regrind
A study conducted by SABIC and Local Motors identified potential for the reuse of scrap reinforced polymer from large-format additive manufacturing. As this method increases in popularity, sustainable practices for recycling excess materials is a burgeoning concern.
Read MoreHow Production Looks Different for 3D Printed Furniture Manufacturer Four Years Later: AM Radio #50
Furniture manufacturer Model No. has shown that there is a demand for customizable, sustainable 3D printed tables, chairs and more since we last covered the company in 2020. But today, production looks different.
Read More3D Printing Brings Sustainability, Accessibility to Glass Manufacturing
Australian startup Maple Glass Printing has developed a process for extruding glass into artwork, lab implements and architectural elements. Along the way, the company has also found more efficient ways of recycling this material.
Read MoreRead Next
Profilometry-Based Indentation Plastometry (PIP) as an Alternative to Standard Tensile Testing
UK-based Plastometrex offers a benchtop testing device utilizing PIP to quickly and easily analyze the yield strength, tensile strength and uniform elongation of samples and even printed parts. The solution is particularly useful for additive manufacturing.
Read MoreCrushable Lattices: The Lightweight Structures That Will Protect an Interplanetary Payload
NASA uses laser powder bed fusion plus chemical etching to create the lattice forms engineered to keep Mars rocks safe during a crash landing on Earth.
Read MoreBike Manufacturer Uses Additive Manufacturing to Create Lighter, More Complex, Customized Parts
Titanium bike frame manufacturer Hanglun Technology mixes precision casting with 3D printing to create bikes that offer increased speed and reduced turbulence during long-distance rides, offering a smoother, faster and more efficient cycling experience.
Read More