Posite Bone Repair Material

Mineralized collagen bone repair material designed for bone defect reconstruction in orthopedic, dental, and neurosurgical applications. The material mimics natural bone composition and structure to promote bone regeneration and healing. Indicated for grafting procedures where bone tissue replacement is required.

Mineralized collagen biomimetic bone repair material designed for oral surgical applications including bone defect reconstruction. The material mimics natural human bone composition and structure, enabling effective osseointegration and bone regeneration in dental procedures. Indicated for alveolar bone defects, extraction socket preservation, and maxillofacial reconstruction.

A moldable artificial bone repair material based on bioactive collagen with good biocompatibility. This product is designed for orthopedic and dental bone reconstruction applications where plastic deformation is required.

An implantable system for bone defect restoration used in orthopedic, oral, and neurosurgical applications. The system utilizes mineralized collagen biomimetic bone material to repair and regenerate bone tissue in various clinical scenarios.

An artificial bone repair material composed of ordered Type I collagen and nano-hydroxyapatite (HA) composite material with composition and microstructure highly similar to natural bone matrix. The material is synthesized through proprietary in vitro biomimetic mineralization technology, can be completely degraded and absorbed in vivo, guides new bone formation, and promotes healing of bone defects.

Mineralized collagen bionic bone material designed for neurosurgical bone defect repair and regeneration. Mimics natural bone composition and structure to facilitate osseointegration and tissue regeneration. Indicated for skull base reconstruction, cranial defects, and spinal fusion applications in neurosurgery.

Innovative biomaterial system for regenerative repair of joint defects and soft tissue damage. Supports tissue healing and integration without immunogenic response.

Biomimetic mineralized collagen artificial bone repair material composed of orderly arranged Type I collagen protein and nano-hydroxyapatite (HA) composite material. The composition and microstructure are highly similar to natural bone matrix. The material is synthesized through proprietary in vitro biomimetic mineralization technology, is completely biodegradable and absorbable in the body, guides new bone generation, and promotes healing of bone defects.

A tri-component composite material combining polymer, bio-ceramic, and degradable magnesium metal, developed using proprietary low-temperature 3D printing technology. It features a macro-micro porous bionic structure with mechanical strength comparable to human cancellous bone, offering excellent osteogenic activity, bone integration, tumor recurrence inhibition, and antimicrobial properties. The material is easy to cut and shape for surgical applications.

Biomimetic mineralized collagen artificial bone repair material composed of orderly arranged Type I collagen protein and nano-hydroxyapatite (HA) composite material. The composition and microstructure are highly similar to natural bone matrix. The material is synthesized through proprietary in vitro biomimetic mineralization technology, is completely biodegradable and absorbable in the body, guides new bone generation, and promotes healing of bone defects.

A world-first magnesium-containing biodegradable polymer bone repair material that combines polymer, bioceramic, and degradable magnesium in a ternary composite structure. It features biomimetic macro-micro porous architecture with mechanical strength comparable to human cancellous bone and excellent osteogenic activity with tumor recurrence inhibition and antimicrobial properties.

A biomimetic mineralized collagen artificial bone repair material composed of orderly arranged Type I collagen protein and nano-hydroxyapatite (HA) composite material, which closely resembles the composition and microstructure of natural bone matrix. The material is synthesized through proprietary in vitro biomimetic mineralization technology, is completely biodegradable and absorbable in vivo, and guides new bone formation to promote healing of bone defects.