Locking Comprssion plate
WASTON
30701
5/6/7/8/9/10/11/12
69/82/95/108/121/134/147/160
Ti
30701
| Quantity: | |
|---|---|
| Code | Holes | Length |
| 30701-005 | 5 | 69 |
| 30701-005 | 6 | 82 |
| 30701-005 | 7 | 95 |
| 30701-005 | 8 | 108 |
| 30701-005 | 9 | 121 |
| 30701-005 | 10 | 134 |
| 30701-005 | 11 | 147 |
| 30701-005 | 12 | 160 |
Locking Mechanism:
Locking Screws: These screws lock into the plate, providing a fixed-angle construct which enhances stability, particularly beneficial in osteoporotic or comminuted bone where conventional screws might not hold as well.
Anatomical Contouring:
Pre-Contoured Design: Plates are often pre-contoured to match the natural shape of the ulna and radius, reducing the need for intraoperative bending and ensuring a better anatomical fit.
Combination Holes:
Dynamic Compression and Locking: Combination holes allow for both dynamic compression using standard screws and fixed-angle stability using locking screws. This provides flexibility in fixation techniques.
Multiple Screw Options:
Multi-Directional Screws: Allows for screws to be placed at different angles, providing versatile and secure fixation in various fracture patterns.
Material:
Stainless Steel or Titanium: Plates are typically made from high-strength materials like stainless steel or titanium, which are biocompatible and resistant to corrosion, ensuring durability and compatibility with the body.
Low Profile Design:
Reduced Profile: The plates are designed to be low profile to minimize soft tissue irritation and reduce the risk of hardware prominence post-surgery.
Versatile Lengths and Sizes:
Range of Sizes: Available in various lengths and sizes to accommodate different fracture types and patient anatomies.
Radiolucent Properties:
Radiolucent Markers: Some plates may include radiolucent markers to aid in intraoperative imaging and precise placement.
Self-Tapping Screws:
Ease of Use: Screws are often self-tapping, which facilitates insertion and reduces surgical time.
Enhanced Stability:
Fixed-Angle Stability: The locking mechanism provides stable fixation that is less dependent on bone quality, making it ideal for use in osteoporotic bones.
Minimally Invasive Options:
MIPO Technique: Some LCPs are designed to be used with minimally invasive percutaneous osteosynthesis (MIPO) techniques, which reduce soft tissue damage and promote faster recovery.
Diaphyseal Fractures: Mid-shaft fractures of the ulna and radius.
Metaphyseal Fractures: Fractures near the wrist or elbow.
Comminuted Fractures: Multi-fragmentary fractures.
Pathological Fractures: Fractures in bones weakened by disease.
Osteoporotic Bone: Providing stable fixation in patients with poor bone quality.
These features collectively make the Ulna & Radius Locking Compression Plate an effective solution for a variety of forearm fractures, promoting proper alignment and healing while minimizing complications.
●Humer fractures, including simple, comminuted, and osteoporotic fractures.
●Ankle fractures with involvement of the humer.
●Syndesmotic injuries requiring stabilization.
●Fractures that extend into the ankle joint (intra-articular fractures).
locking copmression plate brochure.pdf
Humeral Locking Compression Plate is a specialized orthopedic implant designed to stabilize fractures in the humeral. It uses locking screws to create a fixed-angle construct, providing stable and reliable fixation, especially in complex or osteoporotic fractures.
The humeral Locking Compression Plate is used for various types of humeral fractures, including:
●Comminuted fractures (multiple fragments).
●Intra-articular fractures (involving the joint surface).
●Extra-articular fractures (not involving the joint surface).
●Periprosthetic fractures (around a joint prosthesis).
●Osteoporotic fractures (in patients with weakened bone).
●Stable Fixation: Humeral Locking screws provide a fixed-angle construct, ensuring stable fixation even in weak bone.
●Anatomic Design: The plate is pre-contoured to match the natural anatomy of the humeral, reducing the need for intraoperative bending and minimizing soft tissue irritation.
●Versatility: Suitable for various fracture patterns and patient anatomies.
●Early Mobilization: The stability of the fixation allows for early weight-bearing and rehabilitation, promoting faster recovery.
●Reduced Complications: The design reduces the risk of malunion (improper healing) and non-union (failure to heal).
●Preoperative Planning: Radiographic assessment to understand the fracture pattern and plan the surgery.
●Patient Positioning: Typically supine, with the arm accessible.
●Incision and Exposure: A lateral incision over the distal humeral, exposing the fracture site.
●Fracture Reduction: Anatomically reduce the fracture using clamps and guide wires.
●Plate Placement: Position the pre-contoured plate along the lateral aspect of the humeral.
●Screw Fixation: Insert locking screws through the plate holes into the bone.
●Intraoperative Imaging: Use fluoroscopy to ensure proper alignment and fixation.
●Closure: Close soft tissues and skin in layers.
●Immobilization: Initially, a splint or brace may be used to protect the surgical site.
●Weight-bearing: Recommendations vary based on fracture stability and patient condition; gradual weight-bearing is typically encouraged.
●Rehabilitation: Physical therapy to restore function, strength, and range of motion.
●Follow-up: Regular X-rays to monitor fracture healing and alignment.
●Infection: As with any surgical procedure, there is a risk of infection.
●Implant Failure: Rarely, the plate or screws may fail, particularly if the bone quality is poor.
●Non-union or Malunion: The fracture may not heal properly, necessitating further intervention.
●Soft Tissue Irritation: The implant may cause irritation to surrounding soft tissues, though this is minimized with a low-profile design.
Recovery time varies depending on the severity of the fracture, patient health, and adherence to rehabilitation protocols. Generally, patients can expect to begin weight-bearing within a few weeks, with complete recovery and return to normal activities taking several months.
Alternative treatments include:
●Intramedullary Nails: Rods inserted into the bone marrow canal.
●External Fixation: Metal frames outside the body to stabilize the fracture.
●Non-locking Plates and Screws: Traditional methods without the fixed-angle construct.
●Conservative Management: For less severe fractures, non-surgical treatment with casting or bracing may be considered.
Each treatment option has specific indications and is chosen based on the individual patient's needs and fracture characteristics.
| Code | Holes | Length |
| 30701-005 | 5 | 69 |
| 30701-005 | 6 | 82 |
| 30701-005 | 7 | 95 |
| 30701-005 | 8 | 108 |
| 30701-005 | 9 | 121 |
| 30701-005 | 10 | 134 |
| 30701-005 | 11 | 147 |
| 30701-005 | 12 | 160 |
Locking Mechanism:
Locking Screws: These screws lock into the plate, providing a fixed-angle construct which enhances stability, particularly beneficial in osteoporotic or comminuted bone where conventional screws might not hold as well.
Anatomical Contouring:
Pre-Contoured Design: Plates are often pre-contoured to match the natural shape of the ulna and radius, reducing the need for intraoperative bending and ensuring a better anatomical fit.
Combination Holes:
Dynamic Compression and Locking: Combination holes allow for both dynamic compression using standard screws and fixed-angle stability using locking screws. This provides flexibility in fixation techniques.
Multiple Screw Options:
Multi-Directional Screws: Allows for screws to be placed at different angles, providing versatile and secure fixation in various fracture patterns.
Material:
Stainless Steel or Titanium: Plates are typically made from high-strength materials like stainless steel or titanium, which are biocompatible and resistant to corrosion, ensuring durability and compatibility with the body.
Low Profile Design:
Reduced Profile: The plates are designed to be low profile to minimize soft tissue irritation and reduce the risk of hardware prominence post-surgery.
Versatile Lengths and Sizes:
Range of Sizes: Available in various lengths and sizes to accommodate different fracture types and patient anatomies.
Radiolucent Properties:
Radiolucent Markers: Some plates may include radiolucent markers to aid in intraoperative imaging and precise placement.
Self-Tapping Screws:
Ease of Use: Screws are often self-tapping, which facilitates insertion and reduces surgical time.
Enhanced Stability:
Fixed-Angle Stability: The locking mechanism provides stable fixation that is less dependent on bone quality, making it ideal for use in osteoporotic bones.
Minimally Invasive Options:
MIPO Technique: Some LCPs are designed to be used with minimally invasive percutaneous osteosynthesis (MIPO) techniques, which reduce soft tissue damage and promote faster recovery.
Diaphyseal Fractures: Mid-shaft fractures of the ulna and radius.
Metaphyseal Fractures: Fractures near the wrist or elbow.
Comminuted Fractures: Multi-fragmentary fractures.
Pathological Fractures: Fractures in bones weakened by disease.
Osteoporotic Bone: Providing stable fixation in patients with poor bone quality.
These features collectively make the Ulna & Radius Locking Compression Plate an effective solution for a variety of forearm fractures, promoting proper alignment and healing while minimizing complications.
●Humer fractures, including simple, comminuted, and osteoporotic fractures.
●Ankle fractures with involvement of the humer.
●Syndesmotic injuries requiring stabilization.
●Fractures that extend into the ankle joint (intra-articular fractures).
locking copmression plate brochure.pdf
Humeral Locking Compression Plate is a specialized orthopedic implant designed to stabilize fractures in the humeral. It uses locking screws to create a fixed-angle construct, providing stable and reliable fixation, especially in complex or osteoporotic fractures.
The humeral Locking Compression Plate is used for various types of humeral fractures, including:
●Comminuted fractures (multiple fragments).
●Intra-articular fractures (involving the joint surface).
●Extra-articular fractures (not involving the joint surface).
●Periprosthetic fractures (around a joint prosthesis).
●Osteoporotic fractures (in patients with weakened bone).
●Stable Fixation: Humeral Locking screws provide a fixed-angle construct, ensuring stable fixation even in weak bone.
●Anatomic Design: The plate is pre-contoured to match the natural anatomy of the humeral, reducing the need for intraoperative bending and minimizing soft tissue irritation.
●Versatility: Suitable for various fracture patterns and patient anatomies.
●Early Mobilization: The stability of the fixation allows for early weight-bearing and rehabilitation, promoting faster recovery.
●Reduced Complications: The design reduces the risk of malunion (improper healing) and non-union (failure to heal).
●Preoperative Planning: Radiographic assessment to understand the fracture pattern and plan the surgery.
●Patient Positioning: Typically supine, with the arm accessible.
●Incision and Exposure: A lateral incision over the distal humeral, exposing the fracture site.
●Fracture Reduction: Anatomically reduce the fracture using clamps and guide wires.
●Plate Placement: Position the pre-contoured plate along the lateral aspect of the humeral.
●Screw Fixation: Insert locking screws through the plate holes into the bone.
●Intraoperative Imaging: Use fluoroscopy to ensure proper alignment and fixation.
●Closure: Close soft tissues and skin in layers.
●Immobilization: Initially, a splint or brace may be used to protect the surgical site.
●Weight-bearing: Recommendations vary based on fracture stability and patient condition; gradual weight-bearing is typically encouraged.
●Rehabilitation: Physical therapy to restore function, strength, and range of motion.
●Follow-up: Regular X-rays to monitor fracture healing and alignment.
●Infection: As with any surgical procedure, there is a risk of infection.
●Implant Failure: Rarely, the plate or screws may fail, particularly if the bone quality is poor.
●Non-union or Malunion: The fracture may not heal properly, necessitating further intervention.
●Soft Tissue Irritation: The implant may cause irritation to surrounding soft tissues, though this is minimized with a low-profile design.
Recovery time varies depending on the severity of the fracture, patient health, and adherence to rehabilitation protocols. Generally, patients can expect to begin weight-bearing within a few weeks, with complete recovery and return to normal activities taking several months.
Alternative treatments include:
●Intramedullary Nails: Rods inserted into the bone marrow canal.
●External Fixation: Metal frames outside the body to stabilize the fracture.
●Non-locking Plates and Screws: Traditional methods without the fixed-angle construct.
●Conservative Management: For less severe fractures, non-surgical treatment with casting or bracing may be considered.
Each treatment option has specific indications and is chosen based on the individual patient's needs and fracture characteristics.
