At AIBY, we harness the power of advanced 3D printing technology to redefine the future of healthcare and bone reconstruction. Our innovative approach ensures precision, customization, and improved patient outcomes, setting a new standard for medical implants.

Personalized Solutions:

Each implant is tailored to the patient's unique anatomy, ensuring a perfect fit and optimal recovery.

Advanced materials and designs promote natural bone regeneration and reduce recovery times.

Enhanced Healing:

Cost-Effective:

By minimizing waste and production times, 3D printing offers a more efficient and affordable alternative to traditional methods.

With 3D printing, we are bridging the gap between cutting-edge technology and personalized medicine. From reducing costs to enhancing patient outcomes, AIBY’s 3D implants are a leap forward in medical innovation.

Osteogenesis

Digital Platform

The implant is surgically placed, seamlessly integrating with the patient’s existing bone structure.

Patients securely upload their medical scans (CT or MRI), which are then used to create a detailed 3D model of the affected area.

Our AI-driven platform customizes the implant design, and advanced 3D printers produce it with unparalleled precision.

Implantation

Our innovative materials actively support natural bone growth, promoting faster and more effective healing.

Hydroxyapatite (HA) plays a vital role in biological structures like tooth enamel and bones. Our research delves into its properties to better understand its potential applications in health and dentistry.
• Objective: Analyze HA's ability to support bone regeneration and tooth enamel restoration.
• Methodology:
◦ Samples were extracted and subjected to controlled conditions of temperature and acidity.
◦ The interaction of HA with calcium and other minerals was studied to evaluate its performance under simulated biological environments.
• Findings:
◦ HA showed remarkable resilience and adaptability in replicating the hardness and durability of natural tissues.
◦ Further studies confirmed its effectiveness in reducing bacterial absorption and supporting remineralization.

To understand the interaction between hydroxyapatite and bacteria, we analyzed the bacterial uptake of HA under various conditions.
• Objective: Assess HA's ability to resist bacterial growth and support oral health.
• Methodology:
◦ Optical density (OD 0.650) of the supernatant was used to measure bacterial activity.
◦ Samples were exposed to bacteria for one week at controlled temperatures, followed by a thorough evaluation of the oral cavity.
• Findings:
◦ Results showed a significant decrease in bacterial colonies due to HA's interaction with calcium and magnesium ions.
◦ After five weeks of testing, HA effectively reduced bacterial activity, promoting a healthier oral environment.