TiO₂ Nanotube Coatings for Orthopedic Implants
Orthopedic implants—from joint replacements to bone screws—face critical challenges like infection, implant loosening, and delayed bone healing. These complications often stem from poor implant–tissue interactions and bacterial colonization.
TiO₂ Nanotube surfaces, developed by Schnaiffer through precision anodization of titanium, offer a transformative solution: they promote osseointegration, resist infection, and support local drug delivery, all at the nanoscale.
We manufacture high-purity TiO₂ nanotube arrays on medical-grade titanium substrates, ideal for integration into orthopedic implant systems, coatings, and clinical prototypes.
TiO₂ Nanotubes as Orthopedic Implants
Why TiO₂ Nanotubes for Orthopedic Implants?
- Improved Bone Integration: Encourages osteoblast adhesion and proliferation
- Reduced Infection Rates: Inhibits biofilm formation by pathogenic bacteria
- Drug-Eluting Capability: Allows sustained delivery of antibiotics or BMPs
- High Biocompatibility: Non-toxic, non-inflammatory, and corrosion-resistant
- Support for Functional Coatings: Ag, Zn, hydroxyapatite, peptides, etc.
Applications
- Hip and Knee Joint Replacements
- Spinal Implants and Rods
- Bone Screws and Plates
- Intramedullary Nails
- Trauma Fixation Devices
Our Fabrication Process
Schnaiffer’s process ensures uniform and adherent TiO₂ nanotube layers on orthopedic-grade Ti substrates:
- Substrate: Ti6Al4V ELI and CP Titanium
- Electrolyte: Fluoride-based solution
- Post-Annealing: to obtain anatase or rutile phase
- Optional Coatings
Our technology supports flat and curved geometries and is adaptable to specific implant designs.
Typical Challenges Solved
- Implant loosening and poor osseointegration
Nanotube surface enhances bone bonding
- Post-operative infections
Antibacterial coatings or drug-loaded tubes
- Limited bone healing
Growth factor delivery from nanotubes
- Need for revision surgeries
Increased long-term implant stability
Use Cases
Our nanotubes are ready for:
- Implant surface modification labs
- OEM orthopedic device integration
- Pre-clinical animal testing and pilot production
Compatible with
- Conventional orthopedic titanium alloys
- Plasma spray and hydroxyapatite layers
- Biofunctional coatings and sterilization protocols
Research Validation & Clinical Evidence
Studies show TiO₂ nanotube-modified implants provide
- 3× faster osseointegration in animal models
- Up to 90% reduction in bacterial adhesion (S. aureus, E. coli)
- Bone-matrix protein adsorption enhanced by 2–3×
- BMP-2 and antibiotic sustained release up to 14 days
Our material has been cited in orthopedic research focused on hip/knee prosthetics, spinal rods, and trauma screws.
Partner with us
Why Choose Schnaiffer?
Why Choose Schnaiffer?
Why Choose Schnaiffer?
- Academic Heritage: A spin-off from BITS Pilani’s RKIC innovation center
- Biomedical Focus: Specifically tailored for medical-grade applications
- Trusted by Labs: Supplied to leading orthopedic R&D labs in India and abroad
- Made for Customization: We work with your implant specs
Technical Support
Why Choose Schnaiffer?
Why Choose Schnaiffer?
- SEM micrographs of nanotube structure
- XRD phase confirmation
- Pore diameter and tube length spec sheet
- Cleaning & sterilization guide
- Drug/growth factor loading SOP
How to Order
Why Choose Schnaiffer?
How to Order
Email: support@schnaiffer.com
- Desired dimensions and implant application
- Tube size, length, and crystalline phase preferences
- Coating or drug-loading requirements
- Quantity and intended testing or usage environment