Tumor and Trauma
Globus offers minimally invasive surgical solutions with seamlessly integrated instrument, implant, and fixation platforms for spinal tumor and trauma patients.
Vertebral Body Replacement Devices
Customization for Complex Cases
Expandable and static vertebral body replacement solutions enable customization for complex cases that require anterior column support and restoration of sagittal balance.
FORTIFY™
FORTIFY™ streamlines vertebral body replacement through one of several approaches and provides a range of implants designed to restore height, alignment, and stability. One-step insertion-expansion with automatic locking simplifies the technique. PEEK or titanium materials, maximized expansion ranges, and modular endplates allow surgeons to customize each implant for their patient.
Optimized Fit
Maximized expansion ranges and a wide variety of sagittal profiles and footprints allow for an optimized fit.
Radiolucent PEEK Option*
FORTIFY™ R facilitates postoperative visualization and offers a modulus of elasticity closer to bone.
* FORTIFY™ R is FDA cleared for use in the thoracolumbar spine (T1-L5); it is not indicated for use in the cervical spine.
Automatic Locking
FORTIFY™ is designed for height stability with fewer procedural steps by utilizing an automatic locking mechanism.
XCore 2™
The XCore 2™ vertebral body replacement is designed to be a versatile and expandable vertebral body replacement that allows surgeons to utilize the specialized XLIF style endcaps from multiple approaches.
Minimally Disruptive
XCore 2™ provides a zero-profile inserter/expander in one instrument, decreasing the number of surgical steps.
Supplemental fixation required
Customizable
Designed to accommodate patient anatomy, the modular XCore 2™ vertebral body replacement provides three core diameters (16, 18, and 22mm)
Resistance to Subsidence and Migration1,2
The endcaps are contoured to match endplate anatomy to help resist subsidence and are equipped with anti-migration features that are designed to provide increased fixation.
COLOSSEUM™
COLOSSEUM™ is a titanium mesh vertebral body replacement spacer engineered to reduce procedural steps and streamline the static corpectomy procedure. Straight or curved spacers and a variety of endcap angulations are designed to accommodate varying patient anatomy and optimize fit.
Incrementally Pre-Cut Spacers
COLOSSEUM™ allows the building of small constructs from 12-55mm, in 1mm increments, without cutting the spacer.
Supplemental fixation required
Open Architecture
COLOSSEUM™ is designed to maximize contact between large graft area and vertebral body to optimize fusion.
Modular Endcaps
Endcaps are designed to provide a precise fit without additional cutting.
Fixation
A Single Rod System with the Stability of a Plate
REVERE™ Anterior Integrated Staple System
The REVERE™ Anterior Integrated Staple System is a unique single rod (5.5mm) system that is ideal for multi-level anterior constructs to treat deformity, trauma, and tumor cases. The unique design of the staple, which combines the functionality of a traditional staple and screw head into one implant, coupled with multiple points of fixation, provides more rigidity than an anterior plating system while utilizing a single rod.
REVERE™ offers the following advantages:
- Single rod construct allows for less anatomical disruption than a dual rod system.
- Simpler rod contouring than with a dual rod anterior system
- May reduce fusion levels when compared to a posterior system3
- Provides more rigidity than an anterior thoracolumbar plate, due to the integrated staple and screw design4
Prioritizing Clinical Education
Over the past 20 years, we have evolved our programs in partnership with our renowned faculty. We provide learning experiences spanning online educational resources to surgeon-led didactic courses with hands-on training, mentorship opportunities, and field-based training support.
- Smith WD, Dakwar E, Le TV, Christian G, Serrano S, Uribe JS. Minimally invasive surgery for traumatic spinal pathologies: a mini-open, lateral approach in the thoracic and lumbar spine. Spine. 2010;35(26 Suppl):S338-S346.
- Pekmezci M, McDonald E, Kennedy A, et al. Can a novel rectangular footplate provide higher resistance to subsidence than circular footplates? An ex vivo biomechanical study. Spine. 2012;37(19):E1177-E1181.
- Lowe TG, Betz R, Lenke L, et al. Anterior single-rod instrumentation of the thoracic and lumbar spine: saving levels. Spine. 2003;28(20):S208-S216.
- Data on file