Vertebral Augmentation With a Novel Vessel-X Bone Void Filling Container System and Bioactive Bone Cement

@article{Zheng2007VertebralAW,
  title={Vertebral Augmentation With a Novel Vessel-X Bone Void Filling Container System and Bioactive Bone Cement},
  author={Zhaomin Zheng and Keith Dip-Kei Luk and G Kuang and Zhaoyang Li and Je-Hsin Lin and Wing Moon Raymond Lam and Kenneth M.C. Cheung and William Weijia Lu},
  journal={Spine},
  year={2007},
  volume={32},
  pages={2076-2082}
}
STUDY DESIGN Evaluation of a novel, leakage-free vertebroplastic instrumentation by fresh cadaveric studies. [] Key Method Kyphoplasty and Vessel-X were performed using bioactive bone cement (SrHAC) under C-arm fluoroscopy and compared by compression testing to measure the effects of augmentation. Morphologic observations were also performed to determine the cement distribution and vertebral height restoration.
Feasibility Study of Using Viscoplastic Bone Cement for Vertebroplasty: An In Vivo Clinical Trial and In Vitro Cadaveric Biomechanical Examination
TLDR
Vertebroplasty using viscoplastic bone cement is clinically feasible and can effectively improve the vertebral strength and reduce the cement infiltration depth.
An Evaluation of Fracture Stabilization Comparing Kyphoplasty and Titanium Mesh Repair Techniques for Vertebral Compression Fractures: Is Bone Cement Necessary?
TLDR
Evaluating differences in biomechanical stability of vertebral compression fractures repaired using an expandable titanium mesh implant, with and without cement, as compared with standard balloon kyphoplasty found the stiffness following repair was found to be statistically less than the stiffness of the intact vertebral body.
Vesselplasty for the treatment of osteoporotic vertebral compression fractures with peripheral wall damage: a retrospective study.
TLDR
Vesselplasty relieves pain, restores vertebral body height and corrects kyphosis, especially in OVCF with peripheral wall damage, and may reduce the risk of BCL and better control the dispersion of bone cement in the treatment of OVCf.
The implantation of a Nickel-Titanium shape memory alloy ameliorates vertebral body compression fractures: a cadaveric study.
TLDR
The implantation of Ni-Ti shape memory alloys of vertebral body induced effective endplate reduction, restored vertebral height, and provided immediate biomechanical spinal stability.
Balloon Kyphoplasty Versus KIVA Vertebral Augmentation—Comparison of 2 Techniques for Osteoporotic Vertebral Body Fractures: A Prospective Randomized Study
TLDR
Both KIVA and BK restored in short-term similarly vertebral body height, but only KIVHr restored vertebra body wedge deformity, and long-term observation is needed to show whether these radiological changes have any functional impact.
Augmentation of a Locking Plate System Using Bioactive Bone Cement—Experiment in a Proximal Humeral Fracture Model
TLDR
The local filling of Sr-HA bone cement augments the fixation of the locking plate system in current proximal humeral fracture model, which is still unknown whether better primary outcome may lead to better long-term results.
Thoraco-lumbar traumatic vertebral fractures augmentation by osteo-conductive and osteo-inductive bone substitute containing strontium–hydroxyapatite: our experience
TLDR
Strontium–hydroxyapatite bone cement is an effective and safe bone filler in percutaneous vertebroplasty with low leakage rate and absence of major complications when performed by a skilled equipe and allows an immediate and long-lasting stabilization with a significant pain reduction and quality of life improvement.
Vesselplasty versus vertebroplasty in the treatment of osteoporotic vertebral compression fractures with posterior wall rupture
TLDR
Vesselplasty offers similar pain relief and vertebral compression recovery but lower spinal canal leakage compared with vertebroplasty, and is thus a better option than vertebro Plasty for patients with osteoporotic compression fractures with posterior wall rupture.
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