Monoaxial Pedicle Screws feature a fixed, non-movable head that provides maximum rigidity and stability, making them ideal for procedures requiring firm spinal fixation and precise vertebral alignment. Their solid design allows surgeons to apply strong corrective forces during deformity correction or trauma stabilization, ensuring reliable control of spinal positioning throughout the fusion process.

• Spinal trauma (e.g., fractures requiring rigid fixation)
• Corrective spinal deformity surgeries (e.g., Scoliosis, Kyphosis) where strong corrective forces are needed
• High-stability constructs with minimal movement at the screw-rod interface
• Revision surgeries requiring enhanced fixation strength

Polyaxial Pedicle Screws feature a movable, multidirectional head that allows precise adjustment during surgery, facilitating easy and accurate rod placement. This flexibility helps surgeons achieve optimal spinal alignment while minimizing stress on the implant and surrounding bone. The design enhances intraoperative versatility and ensures secure fixation across various spinal levels.

• Spinal fractures (trauma)
• Degenerative Disc Disease
• Scoliosis and Kyphosis (spinal deformities)
• Spondylolisthesis (spinal instability)
• Spinal tumors requiring stabilization
• Spinal infections with instability
• Revision spine surgeries

Monoaxial Reduction Pedicle Screws are designed to assist surgeons in gradually realigning displaced vertebrae during spinal fusion surgeries. Featuring a fixed screw head and extended tulip heads (tabs), these screws allow controlled vertebral reduction and precise rod placement, providing rigid fixation and strong anchorage in the vertebrae. Their robust design facilitates effective load transfer, maintaining spinal alignment throughout complex spinal deformity corrections.

These screws are particularly suitable for controlled reduction maneuvers, offering enhanced stability when realigning vertebrae or correcting malpositioned instrumentation.

• High-grade spondylolisthesis (Grade II or higher) requiring gradual vertebral reduction
• Displaced spinal fractures for controlled realignment
• Spinal deformity correction (e.g., scoliosis, kyphosis) where precise vertebral alignment is needed
• Revision surgeries to correct malpositioned or failed previous instrumentation
• Rod-screw misalignment situations where extended screw tabs assist in gradual rod seating

Polyaxial Reduction Pedicle Screws are engineered to assist surgeons in gradually realigning displaced vertebrae during spinal fusion procedures. Featuring extended tulip heads (tabs) for controlled vertebral pulling and a multi-directional, swivel screw head, these screws allow for easier rod alignment and precise placement while minimizing stress on the screw-bone interface. This combination of flexibility and reduction capability provides secure vertebral anchorage and facilitates controlled deformity correction in complex spinal reconstructions.

• Correction of spinal deformities, including scoliosis and kyphosis
• Stabilization and reduction of traumatic spinal fractures
• Degenerative spinal instability requiring fusion and fixation
• Spinal tumor resection and reconstruction
• Revision surgeries involving spinal realignment and stabilization

Iliac Pedicle Screws are engineered to provide robust anchorage within the Iliac bone, delivering exceptional stability in complex spinal and pelvic reconstructions. These screws are typically used in long spinal constructs where additional distal fixation is required, especially across the lumbosacral junction (L5–S1). Their design ensures strong biomechanical support, making them ideal for challenging deformity corrections and pelvic stabilization procedures.

• Lumbosacral instability at L5–S1 under high biomechanical stress
• Pelvic fixation in long spinal constructs (e.g., Scoliosis or Kyphosis extending to the Sacrum)
• Spinopelvic reconstruction following trauma, tumor resection, or infection
• High-grade Spondylolisthesis requiring spinopelvic stabilization
• Revision spine surgeries where Sacral fixation alone is insufficient
• Congenital or neuromuscular deformities needing strong distal pelvic fixation

Dual Threaded Polyaxial Pedicle Screws feature two distinct thread patterns on the screw shaft — a coarse thread near the tip for strong purchase in cancellous bone, and a finer thread near the head for enhanced cortical bone engagement. The polyaxial head provides multi-directional movement, allowing flexible rod alignment during surgery. This design improves fixation strength and stability while facilitating easier surgical handling.

• Variable bone quality along the screw path (e.g., cortical and cancellous bone interfaces)
• Osteoporotic bone for improved grip and reduced risk of loosening
• Spinal fusion surgery to enhance initial fixation and stability
• Degenerative spine conditions, especially in elderly patients with mixed bone density
• Revision surgeries to optimize screw purchase in previously altered bone

HA (Hydroxyapatite) Coated Monoaxial Pedicle Screws combine a rigid, fixed-angle screw head with a bioactive hydroxyapatite coating that enhances bone growth and promotes faster, stronger osseointegration. This design ensures stable, controlled fixation and improved anchorage, particularly beneficial in patients with reduced bone quality. The monoaxial configuration aids in precise spinal alignment and deformity correction.

• Correction of spinal deformities such as scoliosis and kyphosis
• Degenerative spinal instability requiring rigid fusion
• Osteoporotic spine benefiting from enhanced bone integration
• Traumatic spinal fractures needing controlled, stable fixation
• Spinal tumor resection and reconstruction
• Revision surgeries demanding strong, reliable screw purchase

HA (Hydroxyapatite) Coated Polyaxial Pedicle Screws are designed with a bioactive hydroxyapatite coating that promotes enhanced bone integration and faster osseointegration. The polyaxial head provides multi-directional mobility, allowing easier rod alignment during spinal fixation procedures. This combination improves screw stability, especially in patients with compromised bone quality, while facilitating flexible and secure spinal reconstruction.

• Osteoporotic bone to improve screw fixation and reduce loosening
• Poor bone quality (e.g., elderly patients, metabolic bone disease)
• Spinal fusion surgeries to promote better osseointegration and long-term stability
• Tumor or infection cases with weakened bone requiring enhanced screw anchorage
• Revision surgeries where a stronger bone-screw interface is essential

Fenestrated Monoaxial Pedicle Screws have a fixed screw head angle, providing rigid and stable fixation. The fenestrations along the screw shaft allow for cement augmentation, enhancing screw purchase in osteoporotic or weakened bone. This design offers controlled reduction capabilities combined with improved anchorage, making it suitable for demanding spinal surgeries requiring strong fixation and precise alignment.

• Osteoporotic spine needing cement-augmented fixation
• Correction of spinal deformities with poor bone quality
• Traumatic spinal fractures requiring rigid stabilization
• Spinal tumor resections with compromised vertebral integrity
• Revision surgeries demanding enhanced screw stability and controlled reduction

Fenestrated Polyaxial Pedicle Screws are designed with small holes (fenestrations) along the screw shaft, allowing for enhanced fixation through cement augmentation. The polyaxial screw head provides multi-directional mobility, facilitating easier rod placement and alignment during surgery. These screws combine the benefits of strong anchorage in osteoporotic or compromised bone with flexible handling for complex spinal procedures.

• Poor bone quality / Osteoporosis to enhance fixation strength with Cement Augmentation
• Spinal Tumors or Metastases for added stability in weakened Vertebrae
• Revision Spine surgery when prior fixation failed due to loosening or bone loss
• Augmentation in long-segment constructs to reduce risk of screw pull-out in compromised bone

Spinal Rods are metal bars that connect to Pedicle Screws to hold the Spine steady. They help maintain alignment, correct deformities, and support proper healing after surgery. Rods are typically made from titanium for strength and flexibility.

Connectors link Rods and Screws together or connect multiple rods when needed. They allow surgeons to customize the implant setup based on each patient’s Spine and surgical goals. Connectors play a key role in building a stable and adaptable spinal construct. They are made from Grade 5 Titanium.

Pedicle Staples are small implantable devices used to correct spinal deformities, such as Scoliosis, by guiding controlled growth of the Spine. Unlike traditional fusion methods, they allow for continued motion and growth in younger patients. They are easy to insert into the Pedicle. Made from medical grade Titanium.

• Adolescent Idiopathic Scoliosis (AIS) especially skeletally immature patients
• Moderate spinal curves typically 25°–40°, with remaining growth potential
• Growth modulation in coronal plane to slow growth on the convex side of the curve
• Patients who are candidates for non-fusion techniques to preserve spinal motion and avoid early fusion

Pedicle Hooks are used as anchoring components in posterior spinal instrumentation. Placed under or around the Pedicle, they provide strong fixation in cases where screws may not be suitable, such as in the upper Thoracic Spine or pediatric patients. Made from Medical Grade Titanium. Pedicle Hooks anchor onto the Lamina or Transverse Process, offering less invasive bony engagement and are especially useful in the Thoracic Spine.

• Spinal deformities e.g., Scoliosis, Kyphosis – for segmental fixation
• Juvenile or adolescent patients where bone immaturity may limit screw use
• Upper thoracic fixation where Pedicle size is small or Pedicle Screw placement is risky
• Adjunct to Pedicle Screws to reduce stress at the top/bottom of constructs – "transition zones"
• Osteoporotic or fragile bone when screw fixation is not reliable
• Spinal Tumors or infections as part of stabilization when Pedicle integrity is compromised

Lamina Hooks are designed to engage the Lamina of the Vertebra to provide stable anchoring for posterior spinal constructs. They are especially useful in cases with compromised Pedicle bone quality or anatomical variation.

• Spinal deformities (e.g., Scoliosis, Kyphosis) – for segmental spinal fixation
• Upper Thoracic Spine instrumentation where pedicles are small or difficult to access safely
• Patients with immature or fragile bone (e.g., pediatric cases, osteoporosis) – where screw purchase may be poor
• Hybrid constructs used with Pedicle Screws to reduce stress at junctional zones
• Spinal tumors or infections when pedicle or vertebral body integrity is compromised
• As a salvage option when pedicle screw placement is not feasible

Minimally Invasive Surgery (MIS) Pedicle Screws are specialized spinal implants used to stabilize the Spine while minimizing tissue disruption. Designed for percutaneous insertion, these screws allow surgeons to achieve strong spinal fixation with smaller incisions, leading to reduced blood loss, quicker recovery, and less post-operative pain.

• Lumbar and Thoracic degenerative conditions e.g., Disc Herniation, Spinal Stenosis with instability
• Low - to moderate-grade Spondylolisthesis especially Grade I–II
• Spinal fractures like compression, burst fractures requiring stabilization
• Infections or tumors when minimally invasive stabilization is preferred
• Deformity correction in select cases like early or mild Scoliosis or Kyphosis
• Revision surgery to reduce tissue trauma and scarring
• Patients needing faster recovery e.g., elderly or Comorbid patients

The Lateral Offset Connector is used to link Spinal Rods that are misaligned or placed at different lateral positions. It allows surgeons to adapt the construct to patient anatomy without compromising stability.

Transverse Connectors are used to link parallel Spinal Rods across the midline, providing added rotational and lateral stability to the construct. They are essential in long-segment or deformity correction procedures.

Tapered Rods feature a gradual change in diameter along their length, allowing surgeons to customize spinal constructs with enhanced flexibility and strength where needed. This design helps accommodate anatomical variations and improves ease of implantation.

Rods used with Transverse Connectors provide the main structural support in spinal fixation systems. These Rods are designed to connect securely with Transverse Connectors, ensuring a rigid and stable spinal construct.