Science
Our 3D BioPrinted Bioinductive-Regenerative implants, are set to revolutionize human tissue repairs.
What are bioinductive implants?
At their core, bioinductive implants work like a biological scaffold. Once placed at the injury site—such as a torn tendon or ligament—they encourage the body to regrow healthy, functional tissue. Over time, the implant gradually dissolves and is replaced entirely by the patient’s own regenerated tissue.
This approach offers several important benefits:
• Natural Healing: Instead of relying on permanent hardware, the body rebuilds its own tissue.
• Better Tissue Quality: Healing is stronger and more durable because new tissue grows directly into and around the implant.
• Reduced Re-Tear Risk: By enhancing natural repair, bioinductive implants help prevent repeated injuries—one of the biggest problems in rotator cuff and tendon repairs.
• No Long-Term Foreign Material: Because the implant is bioresorbable, it disappears as healing progresses.
In simple terms:
Bioinductive implants don’t just repair the injury—they help the body truly regenerate.
This is the future of soft-tissue repair, and it’s the foundation of how Brinter is redefining healing in orthopedics and sports medicine.
BENEFITS OF Regenerative Implants OVER NATURAL HEALING
Natural healing is often slow or incomplete, especially with complex injuries. Regenerative implants enhance and guide this process by providing structural support, delivering cells or growth factors, and creating optimal environments for repair.
Compared to healing alone, they offer:
- Faster recovery through immediate scaffolding
- Better fit with patient-specific design
- Fewer complications and reduced scarring
- Personalization with custom cells or materials
These implants don’t just heal—they help the body rebuild stronger.
BENEFITS OF Regenerative Implants OVER Allografts
Allografts, sourced from donor tissue, are widely used but can lead to immune rejection, limited supply, and variable outcomes.
Regenerative implants, made from engineered biocompatible materials, mimic native tissue and guide healing—offering consistent, customizable, and rejection-free solutions.
BENEFITS OF 3D BioPrinted OVER fiber-fabricated IMPLANTS
Traditional fiber-fabrcated or, in other words, Electrospinning or loom techniques from the 1980s and 1990s create fibrous scaffolds that mimic the body’s matrix and support wound healing, but lack the precision for complex tissue engineering. 3D bioprinting, by contrast, builds anatomically accurate, cell-laden structures with integrated materials and function—paving the way for truly regenerative, patient-specific implants.