Orthopedic Implant Titanium Herbert Screw Trauma Surgery Headless Compression Cannulated Screw Orthopedic Herbert Screw Price

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Product Description

📋 Basic Product Information
Color Customized
Application Trauma Surgery
Material Titanium Alloy
Transportation DHL / TNT / FedEx / Air Flight
Transport Package Plastic Bag / Carton
Specification 3.0 / 3.5 / 4.0 / 5.0
Origin China
HS Code 902110000
Production Capacity 300,000 Pieces / Year
📊 Technical Specifications
Model Ref Product Description Dimensions Material
T3601-0101Herbert Cannulated Compression Screw (Hex)2.5*10mmTC4
T3601-01022.5*12mmTC4
T3601-01032.5*14mmTC4
T3601-01062.5*20mmTC4
T3601-02013.0*14mmTC4
T3601-02053.0*22mmTC4
T3601-0301Herbert Cannulated Compression Screw (Hex)3.5*14mmTC4
T3601-03053.5*22mmTC4
T3601-03103.5*32mmTC4
T3601-03143.5*40mmTC4
T3601-0401Herbert Cannulated Compression Screw (Hex)4.0*26mmTC4
T3601-04054.0*34mmTC4
T3601-04104.0*44mmTC4
T3601-04134.0*50mmTC4
🔧 Surgical Technique
1
Incision and Exposure: Make a 1-3 cm incision near the fracture site, avoiding important nerves and vessels. Expose the fracture end by separating soft tissues.
2
Fracture Reduction: Restore the bone to its anatomical position using manual traction and monitor via C-arm fluoroscopy.
3
Guide Wire Insertion: Insert the guide wire under fluoroscopic guidance along the designed path, perpendicular to the fracture plane.
4
Determination of Screw Length: Use dedicated tools or a comparison guide wire to measure the required depth; select a screw 2-4 mm shorter than measured.
5
Drilling: Use a cannulated drill bit to create a hole along the wire, cooling with irrigation to minimize thermal injury.
6
Screw Insertion: Mount the screw onto the compression sleeve and insert manually over the guide wire until the leading thread engages the far fragment.
7
Compression and Fixation: Turn the sleeve to close the fracture. Advance the screw with a screwdriver until the head is flush with the bone.
8
Wound Closure: Irrigate the wound and suture in layers (deep tissues then skin). Apply dressing and necessary splinting.
💡 Product Overview & Benefits
What is a Cannulated Headless Compression Screw?

A Cannulated Headless Compression Screw (CHCS) is an orthopedic device used for stable fixation of bone fractures, notably scaphoid fractures. Its headless design allows it to be countersunk below the articular surface, generating compression across the fracture site without protruding into soft tissues.

Core Advantages
  • Reduced Tissue Damage: The headless design minimizes irritation to surrounding muscles and ligaments.
  • Enhanced Stability: Provides superior fixation compared to traditional screws, reducing revision risks.
  • Minimally Invasive: Enables faster recovery times and better patient outcomes.
  • Lower Infection Risk: The cannulated center allows for easier irrigation.
Indications

These screws are ideal for fractures in long bones (femur, tibia, humerus), particularly spiral fractures, nonunions, and malunions.

❓ Frequently Asked Questions
🔹 What materials are these screws made of?
These compression screws are typically manufactured from high-grade Titanium Alloy (TC4) or Stainless Steel to ensure biocompatibility and strength.
🔹 How long is the typical recovery time after surgery?
Recovery varies by fracture severity, but rehabilitation usually begins within a few weeks post-surgery, with significant improvement seen over several months.
🔹 Can the headless compression screws be removed?
Yes, in cases where the hardware causes pain or clinical complications, they can be removed following a consultation with a physician.
🔹 Are there any activity restrictions post-operation?
Patients are generally advised to avoid weight-bearing on the affected limb for several weeks. Physical therapy is required to regain mobility.
🔹 What is the advantage of a "headless" design?
The headless design allows the screw to be fully buried within the bone, preventing the screw head from interfering with joint movement or irritating soft tissues.
🔹 What is the production capacity for these implants?
The current production capacity is approximately 300,000 pieces per year, ensuring a steady supply for medical institutions.

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