Spinal Products

  • Posterior occipitocervical thoracic internal fixation system
  • Spinal fixation system
  • Polyporous pyramidal prosthesis
  • Additive Manufacturing Interbody Fusion
  • Artificial vertebral fixation system
  • 3A Cervical Plate
  • Double Thread Screw
  • U8U9
  • MIS Screw
  • Laminar Plate
  • Laminar Plate
  • Double Thread Screw
  • Cemented Screw
  • Posterior Cervical Screw
  • Iliac Screw
  • Lumbar PEEK Cage
  • RZ-IIIA
  • Cervical PEEK Cage
  • RZ-IIB

1. Stable and strong midline occipital plate fixation, supplemented by lateral fixation.
2. Strong posterior titanium rod fixation, a variety of lengths of titanium rods are available.
3. Implant the screws that fit the physiological structure.

1. Fixed paltes are available in a variety of sizes, and suitable for different stages. 
2. Effectively prevent the fusion device from shifting and increase stability.
3. A built-in locking plate covers the screw holes to prevent screws from escaping.

1. Polyporous  pyramidal  prosthesis  is  divided  into  two  types,  which  are  suitable  for  cervical  and  thoracolumbar prosthesis respectively. This product is made of titanium alloy powder by electron beam melting process.
2. The  porous  titanium  alloy  structure  facilitates  the  growth  of  surrounding  blood  vessels,  provides  2.  biological environmrnt for bone fusion, and provides the best spinal physiological mechanism stability and carrying capacity.
3. The  part  of  the  bone  trabecula  porous  tube  of  the  polyporous  pyramidal  prosthesis  adopts  a  pore  structure conducive to bone tissue growth, which has excellent bone growth sffect, and effectivety prevents displacement, axial rotation or prolapse, and ensures the stability of the prosthesis after implantation.

1. Bionic bone trabecular microporous structure, porosity up to 80%, 600-800 pore size structure, promotes bone growth and blood vessel formation, and improves fusion rate.
2. Bionic  bone  trabecular  microporous  structure,  modulus  of  elasticity  and  human  cancellous  bone  and  bone trabeculae close to the biomechanical fit, reducing stress masking.
3. High anatomical form matching, surface roughness, high friction coefficient with human bone, which is favorable to improve the fusion rate and stability, and outstanding anti-subsidence ability.
4. Excellent load-bearing capacity for immediate weight bearing; high toughness and plasticity for excellent fatigue resistance.

1. Designed according to the national vertebral anatomy, the concave surface of the upper and lower vertebral seat fits closely, restores the height of the intervertebral space, increases the contact area with the intervertebral disc, facilitates stability and reduces the incidence of subsidence.
2. The  concave-convex  design of the  upper  and  lower vertebral  body  seats  better allows  the  insertion  of the intervertebral disc, which is self-stabilizing immediately after implantation and prevents dislocation and prolapse.
3. The cylindrical hollow and adjustable design of the implant makes it easier to implant during surgery, shortens the operation time and reduces the damage to the surrounding soft tissues.
4. A variety of specifications are available to adapt to the physiological curve of the spine and the height of the vertebral body of different patients, to ensure the optimal physiological stability and load-bearing capacity of the column.

1.Low profile, super bonegraft window.
2.Round edge, reducing tissues stimulation.
3.Anatomically prebending desin.
4.Midcourt line sunken design, easy for location.
5.Anti-recess locking design.
6.Simple, effectively anti-pullout of screw.
7.Lenghth 20---81mm

1.Top thread with guiding groove design to avoid slipping.
2.6-lobe design on plugs, locking more firmly with lesser torque, higher strength,and closed bottom.  
3.Hook lock design, with encircling force from plug to screw , well matching while screwing inward, avoid wrong thread or slipping, 

Indication:
1.Spinal fracture.
2.Spinal dislocation.
3.Spinal tumor.
4.Thoracical / lumbar scoliosis.

1.Arc-shape design facilitating assembly.
2.Super long arm design facilitating operation.
3.Fixing ring can be locked any location for easy rod positioning.
4.Square thread design for anti-cross threading.
5.Internal thread design to reduce extra instruments.;
6.Cortical thread design to increase the holding force of pedical screw.

1. Diverse design for individual patients & surgery options. Prebending&tailoring anatomical design conform with requirements of biological strength. Pure Ti material with well plasticity to meet needs of diverse patients. 

1. Rapid&simple in-situ assembly + anatomical design, to reduce dural stimulation  with soft tissues.  

1.Top thread with guiding groove design to avoid slipping.
2.Screw mural hooklock with screw plug design- Upward hook on plugs, and downward mural hook on screw.
3.Well-matching when screwing inward, avoiding wrong thread or slipping. 
4.Preventing plug slipping with encircling force.

1.uper long & long arm design.
2.Higher density of cortical threads.
3.Distal thread design for cancellous bone . 
4.Distal fenestrated design.

1.Special structure on surface of sphere head to enhance the stability of final lock.
2.Double-open self-tapping design to  ensure precise location & easy implantation.
3.Max 100° angle to meet the requirements of implants with individual patients.

1.Top open, lateral connection, for easy operation. 
2.Well match with 6.0 system.
3.Plain shaft design to reduce the invasion effects from screw thread to sacroiliac joints.
4.Directly connected with rod without lateral connectors, signicantly reduce incisura.
5.Hollow screw design, apply to Micro Invasive & Open Surgery.

1.Bullet head design, easy to implant and support the intervertebral space.
2.Superior & inferior serration design, enhance the postoperative stability.
3.Larger bone contacting surface to facilitate bone fusion.
4.6° lordosis, tightening fitting, conform to physiological lordosis.

1.Surface guiding track design to rotate the cage intervertebrally to ideal position.
2.3 markers for precise location under the X-Ray.

1.Position observable from X-Ray developing marks.
2.Lordosis angle design to restore physiological curvature.
3.Huge bone grafting window, to increase grafting bone mass and fusion rate.
4.Runcinate surface design, to ensure primary stability.

1.Agnail convexity design, avoid seceding.
2.Bullet head design, easy implanted.
3.Mid huge bone grafting window, facilitating bone grafting & fusion.
4.X-Ray developing marks, convenient for observing the position.