Ürünlerimiz

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      Peek Rod

      PEEK (Polyetheretherketone) rods used in spinal surgery are preferred due to their various advantages. The purpose of using PEEK rods is to enhance patient comfort and accelerate the recovery process in spinal surgery. Some of the key benefits provided by PEEK rods for this purpose include:

      • Biocompatibility: PEEK is one of the biomaterials that shows high compatibility with the body. This feature minimizes the risk of implant rejection and infection.
      • Flexibility: PEEK rods are more flexible compared to metal rods, offering movement capabilities closer to natural spinal movements. This helps reduce discomfort for patients during the postoperative period.
      • Radiolucency: PEEK rods allow for clear imaging during MRI and CT scans without causing metallic artifacts. This provides a significant advantage in postoperative follow-ups and evaluations.
      • Weight: PEEK rods are lighter compared to metal rods, which enhances patient comfort, particularly in long-term implantations.
      • Fatigue Resistance: PEEK rods have high fatigue resistance, which enhances the durability of the implant during long-term use and reduces the need for additional surgical interventions.
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      Titanyum Rod

      Platinum rods in spinal surgery are used to provide spinal stabilization and correct deformities. Some of the key benefits provided by platinum rods include:

      • Stabilization: Platinum rods are used to ensure segmental stability after spinal surgery. This helps maintain proper alignment of the vertebrae and limits their movement, thereby supporting the healing process.
      • Deformity Correction: In patients with spinal deformities (such as scoliosis, kyphosis), platinum rods are used to bring the spine into the correct alignment and maintain this alignment.
      • High Durability and Strength: Platinum rods possess high strength and durability. These properties allow the implant to provide long-term stabilization.
      • Corrosion Resistance: Platinum exhibits high resistance to corrosion in biological environments. This ensures the material’s structural integrity is maintained in long-term implantations.
      • Biocompatibility: Platinum rods are biomaterials that exhibit high compatibility with the body. This increases the acceptance rate of the implant and reduces the risk of infection.
      • Excellent Imaging Compatibility: Platinum rods are compatible with post-surgical imaging methods (X-ray, MRI). This compatibility allows doctors to clearly assess the implant placement and spinal health.
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      Peek Cage

      The use of PEEK (Polyetheretherketone) cages in spinal surgery is aimed at providing intervertebral stabilization and supporting the vertebral fusion process. The purposes and benefits of using PEEK cages are as follows:

      • Vertebral Stabilization: PEEK cages enhance spinal stability by filling the space between vertebrae. This is particularly important following degenerative disc disease and spinal trauma.
      • Support for the Fusion Process: PEEK cages, used in conjunction with bone grafts, assist in achieving vertebral fusion. This process ensures the long-term stabilization and proper alignment of the spine.
      • Biocompatibility: PEEK is a biomaterial that exhibits high compatibility with the body. This characteristic increases the acceptance rate of the implant and reduces the risk of infection.
      • Radiolucency: PEEK cages allow for clear imaging during MRI and CT scans without causing metallic artifacts. This offers a significant advantage in postoperative follow-ups and evaluations.
      • Flexibility and Durability: PEEK cages provide flexibility to accommodate spinal movements while maintaining sufficient durability. This helps reduce postoperative discomfort for patients and promotes faster recovery.
      • Promotion of Bone Growth: The internal structure of PEEK cages promotes bone growth, accelerating and strengthening the vertebral fusion process.
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      Dynamic Posterior Stabilization Screw

      The use of screws in spinal surgery is intended to provide spinal stabilization and correct deformities. The purposes and benefits of using spinal screws are as follows:

      • Spinal Stabilization: Screws are placed in areas of the spine that require fixation to provide stabilization. This supports the correct alignment of the vertebrae and helps control their movement.
      • Support for the Fusion Process: Spinal screws, used in conjunction with graft material, facilitate the fusion of bones in vertebral fusion procedures. This increases the long-term stability of the spine.
      • Deformity Correction: In patients with spinal deformities such as scoliosis and kyphosis, screws are used to bring the spine into the correct alignment and maintain this alignment.
      • Fracture Repair: In cases of spinal fractures and trauma, screws stabilize the fracture sites, ensuring proper healing of the bones.
      • Dynamic Stabilization: Certain screws provide dynamic stabilization, allowing the spine to retain its natural movements. This enables patients to move more comfortably during the postoperative period.

      Durability and Strength: Spinal screws possess high strength and durability, allowing the implant to provide long-term stabilization.

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      Putty

      Putty is a type of biomedical material used in surgical procedures. Commonly used as a bone graft material, putty is employed to fill bone cavities, support bone healing, and stabilize the spine. Putty has a dough-like consistency, making it easy to shape and apply to the surgical site.

      Purpose of Using Putty in Spine Surgery

      • Filling Bone Cavities: In spine surgery, putty is used to fill gaps between vertebrae or within bone structures. This helps to stabilize the surgical area.
      • Supporting Bone Healing: Putty contains biological factors that promote the growth of bone cells and the regeneration of bone tissue. This accelerates bone healing and ensures the formation of a solid bone structure.
      • Spinal Stabilization: Stabilizing the vertebrae is critical in spine surgery. Putty serves as a filler between vertebrae, enhancing spinal stabilization.

      Types of Putty

      • Synthetic Putty: Made from synthetic materials such as calcium phosphate or calcium sulfate. This type of putty supports bone healing and is biocompatible.
      • Biological Putty: Contains bone marrow, collagen, and other biological materials. This type of putty provides natural factors that support bone growth.
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      Adhesion Barrier

      Adhesion barriers are biomedical materials used to prevent unwanted adhesions (adhesions) between tissues and organs following surgical procedures. These barriers reduce the risk of complications by preventing tissues from sticking together during the post-surgical healing process.

      Purpose of Using Adhesion Barriers in Spine Surgery

      • Prevention of Adhesions: After spine surgery, adhesions that can form in the surgical area may press on nerve roots or other structures, leading to pain, restricted movement, and other neurological problems. Adhesion barriers are used to prevent the formation of such adhesions.
      • Support for the Healing Process: Adhesion barriers help the surgical area heal more smoothly by preventing tissues from sticking together. This can speed up the healing process and reduce post-operative complications.

      Benefits of Using Adhesion Barriers in Spine Surgery

      1. Reduction of Pain and Complications: Post-surgical adhesions can cause severe pain and functional impairments. Adhesion barriers reduce such complications, allowing for a more comfortable recovery process.
      2. Decrease in Risk of Reoperation: Adhesions sometimes require additional surgical interventions. The use of adhesion barriers lowers the risk of reoperation, helping patients achieve better long-term outcomes.
      3. Prevention of Neurological Complications: In spine surgery, adhesions may put pressure on nerve roots, leading to neurological complications. Adhesion barriers help prevent these complications by keeping nerve roots free.
      4. Prevention of Movement Restrictions: Adhesions can restrict normal tissue movement, leading to mobility limitations. Adhesion barriers help maintain the patient’s range of motion by preventing such adhesions.
      5. Protection of the Surgical Area: Adhesion barriers can also reduce the risk of infection in the surgical area, contributing to a healthier healing process.

      Application of Adhesion Barriers

      Adhesion barriers are typically applied directly to the surgical site at the end of the surgical procedure. These barriers can come in the form of thin film layers, gels, or sprays. After application, the barriers are gradually absorbed by the body and support tissue healing.

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      Hemostatic Gel

      A hemostatic gel is a substance used during surgical procedures to control bleeding. This gel has the ability to quickly stop bleeding, helping surgeons manage hemorrhage and keeping the surgical area cleaner and more visible. The benefits of hemostatic gel include:

      • Control of Bleeding: In spinal surgery, where the depth and complexity of the surgical area are significant, controlling bleeding is crucial. Hemostatic gel rapidly stops bleeding, keeping the surgical field clean and allowing the surgeon to work more effectively.
      • Preservation of the Surgical Field: Bleeding can obscure the surgical field during procedures, making it difficult for the surgeon to perform the operation properly. Hemostatic gel quickly controls such bleeding, preserving the surgeon’s view and enhancing the safety of the procedure.
      • Reduction of Postoperative Bleeding Risk: The risk of bleeding after surgery can lead to complications. The use of hemostatic gel effectively controls bleeding during surgery, helping to reduce the risk of postoperative bleeding.
      • Protection of Tissue and Nerve Structures: In spinal surgery, working around nerve structures and delicate tissues can be challenging. Hemostatic gel controls bleeding around these structures with minimal tissue damage, thereby increasing the safety and efficacy of the surgery.

      Types and Effects of Hemostatic Gels

      Hemostatic gels are typically made from biological materials such as collagen, gelatin, and oxidized cellulose. When these gels come into contact with blood, they accelerate the clotting process, helping to stop bleeding. Additionally, some gels may have antibacterial properties, which reduces the risk of infection.

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      Nerve Detection Probe

      A nerve detection probe is a device used to locate and protect nerves during surgical operations. This probe is especially used in delicate surgeries where nerve protection is critical. Here is more information about the nerve detection probe:

      Features and Applications:

      1. Surgical Operations: The nerve detection probe is used in surgical operations where there is a high risk of nerve cutting, damage, or injury. It is frequently used in brain surgery, spine surgery, ENT (ear, nose, and throat) surgery, thyroid surgery, and orthopedic surgeries.
      2. Nerve Protection: Surgeons use the nerve detection probe to precisely locate nerves, preventing accidental cutting or damage. This increases the safety of the surgical procedure and reduces post-operative complications.
      3. Electrical Stimulation: The nerve detection probe provides low-level electrical stimulation. This stimulation elicits a response from the nerves, allowing the surgeon to accurately determine the nerve’s location based on this response.
      4. Neuromonitoring: The nerve detection probe is also used during intraoperative neuromonitoring. This method allows real-time monitoring of nerve functions and provides immediate feedback to the surgeon to prevent nerve damage.
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      Needle Electrode

      A needle electrode is a type of electrode commonly used in medical and biomedical applications. These electrodes are thin and typically needle-shaped, and are inserted under the skin to measure nerve or muscle activity in a specific area.

      Features and Applications:

      • Electromyography (EMG): Needle electrodes are used in EMG tests to measure the electrical activity of muscles. This test is performed to evaluate nerve and muscle functions and plays a crucial role in diagnosing neuromuscular disorders.
      • Neurological Tests: Used in the diagnosis of neurological disorders, particularly to measure nerve conduction velocities and assess nerve damage.

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