SPIRA-O — Camber Spine Med Tech

Oblique Lumbar Interbody with proprietary osteoconductive microtexture and arched anatomic structure engineered to promote faster fusion.

Product Features

3D Printed Titanium with SPIRA® Technology
Open architecture provides large graft volume while maintaining endplate surface contact
Designed specifically for the OLIF approach - no orthogonal maneuver required for implant seating
Available in 2 footprints and 3 convex lordotic profiles to accommodate patient anatomy

- Footprints(mm): 26x32, 30x38
- Heights: 9 to 19mm in 2mm increments
- Lordosis: 8°, 15°, 20°
- Graft Volume up to 10.4cc

SPIRA^®-O Animation

Designed Specifically for the OLIF Approach

Oblique Lumbar Interbody Fusion

Instruments and implants pass through the most natural corridor to the disc space¹.

Simple retraction and disc access
Minimally invasive with maximal visualization
Comprehensive set of angled and non-reflective disc preparation instrumentation
Straight Instrumentation
No orthogonal maneuver required for implant seating

[1] Gragnaniello, C., & Seex, K. (2016). Anterior to psoas (ATP) fusion of the lumbar spine: evolution of a technique facilitated by changes in equipment. Journal of Spine Surgery. 2(4). 256-265. OSS Press. doi: 10.21037/jss.2016.11.02.

Precision

Inserter location feature placed at the optimal angle for atraumatic insertion

Safety

No toggling of instruments in situ - instruments designed for safe implant delivery under direct visualization

Innovation

Implant design utilizes proprietary open architecture and surface technology

SPIRA-O Instruments are designed for:

Optimal cage placement
Avoids contralateral nerve impingement
Smooth implant delivery through the most natural corridor to the disc space

OLIF Preceptorship Program

SPIRA®’s proprietary 3D Hierarchal Design, is designed for Stability, Synergy, and Simplicity to drive a fast and reliable interbody fusion*.

Open architecture arch design provides immediate and directional fixation with substantial bone contact.
Optimized load distribution through each arch at the vertebral endplate interface allows for physiologic distribution of the flexural stiffness and can reduce the potential for subsidence.