Changing architecture. Changing outcomes.
We know that altering the surface of materials with porosity can improve fusion.1-5 Through Advanced Materials Science® (AMS), we develop proprietary surface and structural technologies designed to enhance the osseointegration and biomechanical properties of implant materials.6-7
AMS key principles
The breakthrough technologies designed through AMS are rooted in three key principles:
Surface
Developing technologies that enhance osseointegration while increasing stability and resistance to expulsion.
Structure
Engineering material structures to mimic the elastic modulus of bone while maintaining durability.
Imaging
Designing technologies that improve visualization on a variety of imaging modalities.
Study highlight: Modulus XLIF with Attrax Putty1
Outcome driven decision making
Watch as Drs. Eastlack and Mundis discuss their recently published study finding improved outcomes and reduced economic burdens when using Modulus XLIF and Attrax Putty together.1
Porous PEEK
Cohere®
The proprietary Porous PEEK technology introduces a first-of-its kind porous architecture designed to promote bone in-growth8,9 while maintaining the biomechanical and imaging properties of PEEK.
Cohere is available in a dynamic range of heights and lordotic options for TLIF, XLIF and Cervical.
Modulus® titanium
Modulus
The market disrupting design and manufacturing process of Modulus integrates endplate porosity with an optimized body lattice structure, providing a fully porous architecture and favorable environment for osseointegration - bone on-growth8 and in-growth8 - while enhancing visualization compared to traditional titanium interbody implants in a variety of imaging modalities.
Modulus is available in a number of sizes and lordotic options for ALIF, XLIF, TLIF and Cervical.
NuVasive Innovation Event
Join our virtual event on Wednesday, November 16 to see our latest innovations.
Surgeon education
Clinical education redesigned.
Connect with our Clinical Professional
Development team to sign up for a course.
Changing architecture. Changing outcomes.
We know that altering the surface of materials with porosity can improve fusion.1-5
Through Advanced Materials Science® (AMS), we develop proprietary surface and structural technologies designed to enhance the osseointegration and biomechanical properties of implant materials.6-7
AMS key principles
The breakthrough technologies designed through AMS are rooted in three key principles:
Surface
Developing technologies that enhance osseointegration while increasing stability and resistance to expulsion.
Structure
Engineering material structures to mimic the elastic modulus of bone while maintaining durability.
Imaging
Designing technologies that improve visualization on a variety of imaging modalities.
Study highlight: Modulus XLIF with Attrax Putty1
Outcome driven decision making
Watch as Drs. Eastlack and Mundis discuss their recently published study finding improved outcomes and reduced economic burdens when using Modulus XLIF and Attrax Putty together.1
Porous PEEK
Cohere®
The proprietary Porous PEEK technology introduces a first-of-its kind porous architecture designed to promote bone in-growth8,9 while maintaining the biomechanical and imaging properties of PEEK.
Cohere is available in a dynamic range of heights and lordotic options for ALIF, XLIF and Cervical.
Modulus® titanium
Modulus
The market disrupting design and manufacturing process of Modulus integrates endplate porosity with an optimized body lattice structure, providing a fully porous architecture and favorable environment for osseointegration - bone on-growth8 and in-growth8 - while enhancing visualization compared to traditional titanium interbody implants in a variety of imaging modalities.
Modulus is available in a number of sizes and lordotic options for ALIF, XLIF, TLIF and Cervical.
NuVasive Innovation Event
Join our virtual event on Wednesday, November 16 to see our latest innovations.
Surgeon education
Clinical education redesigned.
Connect with our Clinical Professional Development
team to sign up for a course.
1. Malone, H., Mundis, G. M., Jr., Collier, M., Kidwell, R. L., Rios, F., Jelousi, M., Galli, S., Shahidi, B., Akbarnia, B. A., & Eastlack, R. K. (2022). Can a bioactive interbody device reduce the cost burden of achieving lateral lumbar fusion?, Journal of Neurosurgery: Spine (published online ahead of print 2022). Retrieved Oct 18, 2022
2. Smith WD. Early outcomes of titanium surface textured, 3-dimensional manufactured implants for lumbar spinal fusion. Presented at: SOLAS 11th Annual Meeting; May 17-19, 2018; San Diego, CA, USA.
3. Hill CP and Strenge KB. Early clinical outcomes comparing porous PEEK, smooth PEEK, and structural allograft interbody devices for anterior cervical discectomy and fusion. J Spine Neurosurg 2019;8(1):1-7i.
4. Burkus JK. Early Outcomes of Anterior Cervical Discectomy and Fusion Using a Porous PEEK Interbody Fusion Device. J Spine Neurosurg 2018;7:2.
5. Burkus JK, Rehak C. Anterior Cervical Discectomy and Fusion Using Porous PEEK Implants at Levels Adjacent to a Previous Fusion. J Spine Neurosurg 2019;8:3.
6. Preclinical data on file. Data may not be representative of clinical results. TR 9604787.
7. Representative coupon, preclinical data on file. Data may not be representative of clinical results. TR 9604781.
8. Preclinical data on file. Data may not be representative of clinical results. TR 9604787
9. Torstrick FB, Lin ASP, Safranski DL, et al. Effects of surface topography and chemistry on polyether-ether-ketone (PEEK) and titanium osseointegration. Spine 2020;45(8):E417-24."
For important product safety information please visit nuvasive.com/eIFU