BiomaterialsBioprintingMedicalMedical Research

Carbon’s bioabsorbable elastomer shows biocompatibility in vivo

All samples have been designated as non-toxic with a range of full absorption times

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Carbon’s developmental bioabsorbable elastomer platform has demonstrated biocompatibility in vivo, with all samples being designated as non-toxic and exhibiting tunable times for full absorption. This latest milestone indicates the elastomer’s potential future development in biomedical lattice applications such as soft tissue repair, wound dressings, and nerve conduits.

The Silicon-Valley based company has made a name for itself as a manufacturer of high-speed photopolymerization 3D printers using durable, reactive materials. The range of Carbon supported resins has continued to increase and now includes more sustainable, up to 40% plant-based materials. This, however is the first biocompatible material for implantation. The developmental bioabsorbable elastomer has reportedly shown impressive mechanical performance, biocompatibility,  and tunability. This includes an absorption rate that can be tuned to suit a variety of potential applications, making it versatile for a broad array of medical uses. Additionally, current in vivo studies have demonstrated the required tissue tolerance and desirable healing responses for an implantable device through 26 weeks.

Carbon’s bioabsorbable elastomer shows biocompatibility. Samples have been designated as non-toxic with a range of full absorption times.“We’re very pleased to announce that Carbon’s developmental bioabsorbable elastomer platform has demonstrated biocompatibility in vivo,” said Jason Rolland, SVP of Materials at Carbon. “These intricate structures made with Carbon Digital Light Synthesis technology may hold the key to addressing the longstanding challenge of optimizing the mechanical properties and degradation rate of an implant. It’s a milestone, and we look forward to working with interested partners to further develop applications for this resin.”

Printed bioabsorbable elastomer lattices created using Carbon DLS and the resin hold great promise for potential future development for a variety of biomedical solutions, for example in soft tissue repair. When repairing a tendon that has been torn or thinned, such devices could improve existing collagen-based xenografts and allografts by reducing the inflammatory response, enhancing elasticity and directionality, and improving the consistency of mechanical properties. Carbon’s bioabsorbable elastomer shows biocompatibility. Samples have been designated as non-toxic with a range of full absorption times. Other uses could include wound dressings, where absorbable lattice devices could promote healing while maintaining constant force across an uneven surface. They also may enhance the range of motion during healing while potentially reducing the need for repeated dressing changes and their associated pain. Yet another use could extend into nerve conduits, in case the peripheral nervous system is damaged with severe injuries requiring surgery performed by a neurosurgeon. Carbon’s bioabsorbable elastomer potentially could improve existing solutions by enhancing flexibility, porosity, neuro inductivity and neuro conductivity.


Space-filling applications in soft tissue surgery could also use these implants to fill the site left vacant after the removal of a mass and allow for the ingrowth of natural tissues to minimize deformities. Finally, temporary mechanical support applications could see the absorbable lattice ‘cushions’ be used in a variety of surgeries where tension or compression of the tissues must persist post-surgery in order to minimize leakage or bleeding or to maintain soft tissues in place during healing.

To learn more about novel bioabsorbable implants with elastomeric properties, download the whitepaper here.

Research 2022
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741 unique polymer AM companies individually surveyed and studied. Core polymer AM market generated $4.6 billion...

Edward Wakefield

Edward is a freelance writer and additive manufacturing enthusiast looking to make AM more accessible and understandable.

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