Brinter® Bioprinting Solutions include over 60 3D-printed parts using HP Multi Jet Fusion technology, making up 75% of all the custom-made medical equipment 3D parts found in the machine.
Brinter® Bioprinting Solutions include over 60 3D-printed parts using HP Multi Jet Fusion technology, making up 75% of all the custom-made medical equipment 3D parts found in the machine.
Brinter has been developing the granulate-based multi-material 3D printing process as part of the EU Horizon2020 project Novum. The increased concern of environmental issues and technology development has led to growing interest in developing novel, sustainable, yet high-performance materials for industrial additive manufacturing (AM) and for a wide variety of applications such as electrical insulation components and parts for the automotive, marine and medical industry. AM enables rapid and cost-effective manufacturing of complex and lightweight parts without any expensive tools such as moulds.
Unique seamless workflow, from intraoral scan to the J5 DentaJet 3D printer, unlocks the full geometric and color capabilities of PolyJet technology for dentistry
Keystone Industries introduces KeyDenture Try-In, a high-quality 3D printing resin designed for manufacturing short-term trial dentures. Like all KeyPrint® 3D resins, KeyDenture Try-In is compatible with a variety of printers and workflows and has been subjected to a rigorous battery of tests to ensure the material is compliant with international regulatory and quality standards.
Currently being piloted with selected customers, the new 3D bioprinting head provides a revolutionary approach to regenerative medicine and replacing lost biological functions.
After 18 months of almost entirely digital encounters, Brinter is excited to participate onsite at the Formnext 2021 Exhibition in Frankfurt, Germany, on 16–19 November.
SABIC, a global leader in the chemical industry, today has announced the development of a new technology and range of dedicated polyethylene (PE) and polypropylene (PP) resins that mark a significant leap forward in the performance profile of polyolefin pressure pipes.
PostProcess’ DEMI 910 Automated Resin Removal Solution is Now Compatible with Carbon® DPR 10 Resin
Widespread access to verifiably accurate, customized 3D anatomic modeling offers physicians fresh insights; connects clinicians and their patients with vital information
Our partners from the RESTORE project have recently published an article titled “Design and development of poly-L/D-lactide copolymer and barium titanate nanoparticle 3D composite scaffolds using breath figure method for tissue engineering applications” in the journal Colloids and Surfaces B: Biointerfaces. The study shows that barium titanate nanoparticles (BTNP) can be combined with poly-L/D-lactide copolymer (PLDLA) to create a composite scaffold for cartilage tissue engineering applications.
Millions of people worldwide are affected by osteoarthritis (OA), occurring due to the wear down of protective cartilage that cushions the end of bones. Cartilage is a firm, slippery tissue that enables nearly frictionless joint motion.