Workpackages
Vertebral body replacement represents one of the most  challenging and invasive procedures. Even though modern surgical techniques for  en bloc resection of vertebral body are consolidating, this procedure is  burdened by high complication rates (45.5 %) as surgical site infections, that  are critical and difficult to treat, poor bone regeneration and mechanical  instability, also correlated with infections.
NANO-VERTEBRA project proposes a breakthrough approach to realize customized prosthesis to replace vertebral bodies affected by tumors or major traumatic events, specifically engineered to reduce infections and increase patients’ surgical options.
WPs Romanian team specific WPs
WP  1.  Osseointegrated and antibacterial coatings for functionalized spine  implants -Technical specifications; Synthesis and characterization of  osseointegrated coatings on non-porous Ti substrates
                               Task 1.1 Technical specifications
                               Task 1.2 Synthesis of osseointegrated coatings on polished Ti  substrates
                               Task 1.3 Characterization of osseointegrated coatings on polished Ti  substrates
                               Task 1.4 Synthesis of osseointegrated and antibacterial coatings on  polished Ti substrates
                               Task 1.5 Characterization of osseointegrated and antibacterial coatings  on polished Ti substrates
                               Task 1.6 Optimized synthesis of osseointegrated coatings on rough Ti  substrates
                               Task 1.7 Characterization of osseointegrated coatings on rough Ti  substrates
                               Task 1.8 Project meeting
                         Task 1.8 Dissemination of the project results
WP 2. Synthesis and characterization of osseointegraed coatings on  non-porous and porous Ti substrates 
                               Task 2.1 Optimized synthesis of osseointegrated and antibacterial  coatings on rough Ti substrates [video link]
                               Task 2.2 Characterization of osseointegrated and antibacterial coatings  on rough Ti substrates
                               Task 2.3 Experimental configurations for the deposition of coatings on  porous substrates [video link] 
                               Task 2.4 Preliminary tests for the synthesis of osseointegrated and  antibacterial coatings on porous substrates and their characterization
                               Task 2.5 Project meeting
                               Task 2.6 Dissemination of the project results
WP 3. Optimized synthesis and characterization of osseointegrated coatings  on non-porous  Ti substrates 
                               Task 3.1 Optimized experimental configurations for the deposition of  coatings on porous substrates
                               Task 3.2 Synthesis of osseointegrated coatings on porous Ti substrates
                               Task 3.3 Characterization of osseointegrated coatings on porous Ti  substrates
                               Task 3.4 Synthesis of osseointegrated and antibacterial coatings on  porous Ti substrates
                               Task 3.5 Characterization of osseointegrated and antibacterial coatings  on porous Ti substrates
                               Task 3.6 Test lot 1 of functionalized vertebral porous implant 
                               Task 3.7 Project meeting
                               Task 3.8 Dissemination
WP 4. Nanostructured and antibacterial coatings deposited on porous  vertebra implant 
                               Task 4.1 Test lot 2 of functionalized vertebral porous implant 


Task 4.2 Results evaluation aiming for clinical and industrial application

Task 4.3 Final project meeting
The project proposes to implement personalized vertebral prosthesis, by combining nanostructured antibacterial and ceramic coatings to prevent infections and to promote fast and effective bone regeneration. An optimization of implant architecture by 3D modeling and additive manufacturing technologies will be also performed to maximize coverage of the prosthesis by nanocoatings, boost integration, and guarantee suitable mechanical properties and to be patient specific.