2.7 mm Locking Distal Radius Plates
Vast Ortho Locking Distal Radius Plates category contains all plates used in distal radius system. Check below all products from Locking Distal Radius Plates category.
Vast Ortho Locking Distal Radius Plates category contains all plates used in distal radius system. Check below all products from Locking Distal Radius Plates category.
Locking Distal Radius Plates used in orthopedic surgery to treat fractures of the distal radius, which is the part of the forearm bone closest to the wrist. These plates are made of titanium or stainless steel, and are designed to be fixed to the bone using locking screws.
The use of distal radius plates is a common treatment for fractures that are displaced or comminuted, meaning that the bone is broken into several pieces. The surgical procedure involves making an incision near the wrist to access the fractured bone. The bone fragments are then carefully realigned and the surgical plate is placed on the bone with screws to hold it in place. The plate and screws may be placed on the top or bottom of the bone, depending on the type and location of the fracture.
Locking Distal Radius Plates are used to stabilize the fracture, promote proper bone healing, and restore normal function to the wrist and hand. They may be used alone or in combination with other surgical techniques, such as bone grafting or external fixators, to achieve the desired outcome.
While distal radius plates are generally safe and effective, there are potential risks associated with any surgical procedure, including infection, implant failure, nerve or blood vessel damage, and reduced range of motion in the wrist. Patients should discuss the risks and benefits of the procedure with their surgeon before undergoing surgery.
Locking Distal Radius Plates are indicated for fixation of complex intra- and extra-articular fractures and osteotomies of the distal radius and other small bones in adults, skeletally mature adolescents, and the following adolescent distal radius fractures:
Intra-articular fractures exiting the epiphysis
Intra-articular fractures exiting the metaphysis
Physeal crush injuries
Any injuries which cause growth arrest to the distal radius
A complete instruments set are also available for Locking Distal Radius Plates. Instruments can be modified according to the customer’s requirement with minimum quantity required. All these instruments can be used several times.
We are keeping wide range of instruments items in this set to ensures that Doctors get almost all required items during surgery. Below is list of items of this set.
The heads of the locking screws contain male threads while the holes in the plates contain female threads. This allows the screw head to be threaded into the Locking Distal Radius Plates, locking the screw into the plate. This technical innovation provides the ability to create a fixedangle construct while using familiar plating techniques.
By using locking screws in a bone plate, a fixed-angle construct is created. In osteopenic bone or fractures with multiple fragments, secure bone purchase with conventional screws may be compromised. Locking screws do not rely on bone/plate compression to resist patient load, but function similarly to multiple small angled blade plates. In osteopenic bone or comminuted fractures, the ability to lock screws into a fixed-angle construct is imperative.
By combining locking screw holes with compression screw slots in the shaft, the plate can be used as both a locking device and a fracture compression device. If compression is desired, it must be achieved first by inserting the standard screws in the compression screw slots before inserting any locking screws.
2.7 mm Locking Cortical Screws available lengths are 8mm, 10mm, 12mm, 14mm, 16mm, 18mm, 20mm, 22mm, 24mm, 26mm, 28mm, 30mm, 32mm, 34mm, 36mm, 38mm and 40mm.
2.7 mm Cortical Screws available lengths are 8mm, 10mm, 12mm, 14mm, 16mm, 18mm, 20mm, 22mm, 24mm, 26mm, 28mm, 30mm, 32mm, 34mm, 36mm, 38mm and 40mm.
These Screws are made from pure Titanium and SS 316L. Any additional length sizes of these screws will be made on demand.
Contraindications may be qualified or total, and need to be taken into consideration when evaluating the prognosis in each case. The physician’s education, training and professional judgement must be relied upon to choose the most appropriate device and treatment. Conditions presenting an increased risk of failure include:
Before using Locking Distal Radius Plates, the surgeon and ancillary staff should study the safety information in these instructions, as well as any product-specific information in the product description, surgical procedures and/or brochures.
Plates are made from medical grade materials and are designed, constructed and produced with utmost care. These quality assure best working results provided they are used in the proper manner. Therefore, the following instructions for use and safety recommendations must be observed.
Improper use of Plates can lead to damage to the tissue, premature wear, destruction of the instruments and injury to the operator, patients or other persons.
It is vital for the operating surgeon to take an active role in the medical management of their patients. The surgeon should thoroughly understand all aspects of the surgical procedure and instruments including their limitations. Care in appropriate selection and proper use of surgical instruments is the responsibility of the surgeon and the surgical team. Adequate surgical training should be completed before use of this plate.
The following adverse effects are the most common resulting from implantation:
The operating planning is carried out following a thorough clinical evaluation of the patient, Also, x-rays must be taken to allow a clear indication of the bony anatomy and associated deformities. At the time of the operation, the corresponding implantation instruments in addition to a complete set of Locking Distal Radius Plates must be available.
The clinician should discuss with the patient the possible risks and complications associated with the use of Implants. It is important to determine pre-operatively whether the patient is allergic to any of the implant materials. Also, the patient needs to be informed that the performance of the device cannot be guaranteed as complications can affect the life expectancy of the device.
As with all major surgical procedures, risks, side effects and adverse events can occur. While many possible reactions may occur, some of the most common include: Problems resulting from anesthesia and patient positioning (e.g. nausea, vomiting, dental injuries, neurological impairments, etc.), thrombosis, embolism, infection, nerve and/or tooth root damage or injury of other critical structures including blood vessels, excessive bleeding, damage to soft tissues incl. swelling, abnormal scar formation, functional impairment of the musculoskeletal system, pain, discomfort or abnormal sensation due to the presence of the device, allergy or hypersensitivity reactions, side effects associated with hardware prominence, loosening, bending, or breakage of the device, mal-union, non-union or delayed union which may lead to breakage of the implant, reoperation.
Place the patient in the supine position with the hand and arm on a hand table, preferably radiolucent for fluoroscopic imaging. The elbow should be fully extended and in full supination.
Make a longitudinal incision slightly radial to the flexor carpi radialis tendon (FCR). Dissect between the FCR and the radial artery, exposing the pronator quadratus. Detach the pronator
quadratus from the lateral border of the radius and elevate it toward the ulna so the radius is exposed and the fracture is visualized.
Reduce the fracture using the preferred reduction technique. The reduction method will be fracture specific.
Apply the plate to fit the volar surface of the distal radius and insert a 2.7 mm screw into the long hole in the shaft, following the method described in the General Technique section. Adjust the plate position as necessary, and tighten the screw.
The order of screw insertion in the shaft and metaphysis may vary depending on fracture pattern and reduction technique.
Select the preferred drill guide and insert it into a 2.7 mm locking hole in the head of the plate. Drill to the desired depth with a 2.0 mm drill bit or 2.0 mm K-wire. Measure correct screw length using the preferred method as described in the General Technique section. Insert a 2.7 mm locking screw or 2.0 mm LCP Buttress Pin.
Verify plate and distal screw location with a drill bit or K-wires before inserting multiple screws.
Determine where 2.7 mm locking or 2.7 mm cortex screws will be used in the shaft of the volar plate. Following the steps described in the General Technique section, insert these screws, beginning with the most proximal screw.
Confirm proper joint reconstruction, screw placement, and screw length, using multiple C-arm views. To ensure that the most distal screws are not in the joint, use additional views.
Use the appropriate method for surgical closure of the incision.
Place the patient in the supine position with the hand and arm on a hand table, preferably radiolucent for fluoroscopic imaging. The elbow should be fully extended with the hand pronated.
Make a straight incision 5 cm to 9 cm in length, approximately 2 cm proximally from the base of the second metacarpal over Lister’s tubercle to the border of the muscle belly of the first extensor compartment.
Open the extensor retinaculum using a longitudinal incision over the third compartment. Dissect the extensor pollicis longus (EPL) tendon and place it in a vessel loop for manipulation.
Elevate the second and fourth dorsal compartments subperiosteally to preserve the integrity of these compartments so there will be no direct contact between the tendons and implants.
On the ulnar side, continue to dissect toward the radial border of the DRUJ, preserving the ligament and joint capsule. On the radial side, dissect toward the brachioradialis tendon, to place the dorsoradial plate correctly to support the radial styloid.
Begin fixation on the intermediate column with the dorsoulnar plate, adapting it carefully to the surface of the bone. This plate supports the intermediate column and fixes the dorsoulnar fragment. Fix the plate preliminarily with a 2.7 mm cortex screw in the shaft fragment close to the fracture (buttress position).
For the radial column, position the dorsoradial plate beneath the first compartment to support the radial styloid. Fix it to the bone with a 2.4 mm cortex screw in the shaft, close to the fracture. It should form an angle of approximately 70° to 90° to the dorsoulnar plate. Confirm correct reduction and position of the plates with fluoroscopy.
Alternative technique
The dorsoradial plate may be placed using a separate incision between the first and second extensor compartments. Use caution with the alternative approach to protect branches of the superficial radial nerve in the skin flap. The dorsoulnar plate may be placed through a separate incision into the fifth extensor compartment. The extensor retinaculum over the distal part of the third compartment may be preserved, so that the tendon is guided along its course toward the thumb.
Using two screws in the distal fragment and two screws in the proximal fragment will usually provide sufficient stability.
Confirm proper joint reconstruction, screw placement, and screw length using multiple C-arm views.
Create a flap with the extensor retinaculum by pulling it underneath the EPL and suturing it. The extensor retinaculum lies between the EPL and the dorsoulnar plate to avoid direct contact with the structures.
Use the appropriate method for surgical closure of the incision.