Surgical Approaches to the Long Bones: Radius and Tibia

By Dr. Zubair Khalid, DVM, MS, PhD · 2026-08-11

Key Takeaways

• Surgical approaches to the radius and tibia prioritize visualization for fracture repair while preserving neurovascular structures and soft tissue viability, with the craniomedial approach standard for radial shaft fractures and medial or craniomedial for tibial shaft fractures.
• Limited soft tissue coverage over these subcutaneous bones necessitates meticulous periosteal handling to maintain blood supply, as excessive stripping can delay fracture healing and lead to nonunion, particularly in patients with compromised bone quality like osteoporosis.
• Key neurovascular structures at risk include the cephalic vein and superficial radial nerve for the radius, and the saphenous vein and nerve, and cranial tibial artery for the tibia, requiring careful identification and retraction during dissection.
• Implant placement corridors are typically on the cranial or medial surface of the radius and the medial surface of the tibia, with plate application directly beneath the skin posing a risk of wound dehiscence and implant exposure.
• Complications such as implant loosening, delayed union, nonunion, tendon irritation (especially the extensor pollicis longus with distal radius fractures), and surgical site infection are recognized, necessitating careful monitoring and appropriate management strategies.
• Approach selection is dictated by fracture location, with specific considerations for proximal and distal metaphyseal regions, and the choice between medial and craniolateral tibial approaches depends on fracture configuration, implant type, and soft tissue envelope integrity.

This article details the surgical approaches used to expose the radius and tibia in dogs and cats for fracture repair and other orthopedic procedures. It is written for practicing veterinarians who perform or plan internal fixation of these long bones. The focus is on the anatomic dissection planes, muscle handling, and implant placement corridors that allow adequate visualization while preserving neurovascular structures and soft tissue viability.

The radius and tibia present distinct surgical challenges. Both are weightbearing bones with limited soft tissue coverage, making approach selection critical for fracture healing and wound management. The radius is paired with the ulna, and the tibia is paired with the fibula. Each bone requires different positioning, incision placement, and dissection strategies depending on the fracture location and the implant system chosen. This article provides the conceptual framework and stepwise anatomic guidance for the standard approaches, with attention to the complications that arise from inadequate exposure or excessive soft tissue stripping.

At a Glance

Anatomic Principles of Long Bone Exposure

The fundamental goal of any surgical approach to a long bone is to provide sufficient visualization for fracture reduction and implant placement while preserving the blood supply to bone fragments and surrounding soft tissues. Periosteal stripping should be limited to the minimum necessary for plate application. The blood supply to the diaphysis of the radius and tibia derives from both the medullary nutrient artery and the periosteal plexus. Disruption of either source delays fracture healing, and excessive stripping of both can lead to nonunion.

The radius and tibia are both subcutaneous over a portion of their surface. This anatomic feature allows relatively direct approaches without splitting large muscle masses. However, it also means that implants placed on these surfaces have minimal soft tissue coverage, increasing the risk of wound dehiscence and implant exposure. The surgeon must balance the mechanical advantage of plate placement on a tension surface against the biologic cost of limited soft tissue coverage.

Bone healing after fracture repair depends on mechanical stability and biologic capacity. Osteoporosis and other metabolic bone diseases impair fracture healing through decreased callus formation and reduced biomechanical strength of the repair construct, as documented in systematic reviews of animal and clinical studies The effect of osteoporosis and its treatment on fracture healing. In patients with compromised bone quality, the surgical approach must minimize additional biologic injury, and the fixation strategy may need to account for reduced screw purchase.

Patient Positioning and Preparation

Positioning for radius surgery typically places the patient in dorsal recumbency with the affected limb extended and slightly abducted. The limb is suspended or supported to allow access to both the medial and cranial surfaces. The entire limb from the elbow to the digits is clipped and aseptically prepared. A tourniquet may be applied proximally to reduce intraoperative hemorrhage, particularly for distal fractures where the surgical field is small and bleeding obscures visualization.

For tibial surgery, dorsal recumbency with the limb extended allows access to the medial surface, which is the standard plate application site. Alternatively, lateral recumbency with the affected limb uppermost provides access to the craniolateral aspect of the proximal tibia. The choice depends on the fracture location and the planned implant configuration. The limb is prepared from the stifle to the digits.

Emergency stabilization of fractures before definitive repair influences the condition of the soft tissues at the time of surgery. Initial management of orthopedic injuries includes stabilizing the limb and protecting exposed tissues, as described in emergency management guidelines Management of orthopedic emergencies. A well-applied temporary splint reduces further soft tissue trauma and swelling, making the definitive approach easier and safer.

Approach to the Radial Shaft

The standard approach to the radial diaphysis uses a craniomedial incision. The skin incision begins just distal to the elbow and extends along the craniomedial border of the radius to the level of the carpus. The subcutaneous tissues are divided carefully to identify and preserve the cephalic vein, which runs along the craniomedial aspect of the antebrachium. The superficial branch of the radial nerve accompanies the cephalic vein and must also be protected.

The deep fascia is incised along the same line. The extensor carpi radialis muscle is identified laterally and the pronator teres muscle proximally. These muscles are retracted laterally to expose the cranial surface of the radius. The abductor pollicis longus muscle crosses the distal third of the radius obliquely and may require partial elevation or retraction for distal fracture exposure.

For plate application, the craniomedial surface of the radius provides a flat corridor that accommodates plates of various lengths. The medial surface is also accessible through the same approach with minimal additional dissection. The choice between cranial and medial plate placement depends on fracture configuration and the soft tissue envelope. Cranial placement is mechanically favorable for weightbearing loads but leaves the plate directly beneath the skin. Medial placement offers slightly more soft tissue coverage but may be less favorable for certain fracture patterns.

The distal radius narrows and flares toward the carpus. Approaches to distal fractures must extend to the radiocarpal joint, and care is taken to avoid the extensor tendons that cross the joint dorsally. The radial carpal joint capsule may be opened if intra-articular extension is present, but this is not required for diaphyseal fractures.

Approach to the Tibial Shaft

The medial approach to the tibial diaphysis is the most direct and commonly used. The skin incision runs along the medial border of the tibia from the tibial tuberosity to the medial malleolus. The subcutaneous tissue is thin over this surface, and the saphenous vein and nerve run along the caudomedial aspect of the limb. These structures must be identified and retracted caudally to avoid injury.

The crural fascia is incised along the medial tibial surface. No major muscle bellies cover the medial diaphysis, which allows rapid exposure. The cranial tibial muscle lies along the craniolateral border and may be retracted cranially for access to the cranial surface. The long digital extensor muscle originates from the lateral femoral condyle and crosses the proximal tibia, it is retracted laterally during proximal approaches.

Plate application on the medial tibial surface is straightforward because of the flat subcutaneous corridor. The plate lies directly beneath the skin, and wound complications are a recognized risk. The craniomedial approach provides access to both the medial and cranial surfaces and is preferred when the fracture configuration requires a plate on the cranial aspect or when medial soft tissues are compromised.

Proximal tibial fractures require extension of the approach toward the stifle. The insertion of the patellar ligament and the tibial tuberosity are identified to avoid damage to these structures. Distal tibial fractures approach the tarsus, and the medial malleolus and the origin of the medial collateral ligament must be preserved. The saphenous vessels divide near the distal tibia, and their branches should be protected.

Soft Tissue Handling and Closure

The limited soft tissue envelope over both the radius and tibia demands meticulous handling. Skin edges are handled with fine forceps or skin hooks. The subcutaneous layer is closed separately to reduce tension on the skin closure. Deep fascial closure is performed where possible, but over the medial tibia and craniomedial radius, the fascia is thin and may not provide a robust second layer.

Drain placement is considered when dead space persists or when the fracture was open. The decision to close primarily or to delay closure depends on the degree of contamination and the viability of the soft tissues. Open fractures of these bones carry a high risk of infection because of the minimal soft tissue coverage, and the approach must preserve all viable tissue to allow eventual closure.

Tendon injuries associated with distal radius fractures are recognized in human patients, where rupture of the extensor pollicis longus tendon is a documented complication Etiology of Traumatic Causes of Extensor Pollicis Longus Tendon Rupture. In dogs and cats, similar tendon injuries can occur with distal radial fractures, and the surgical approach should include inspection of the extensor tendons when the fracture extends to the distal metaphysis.

Approach Selection by Fracture Location

The radius and tibia differ in the surgical accessibility of their segments. The radial shaft is exposed through a single reliable approach, but the proximal and distal metaphyseal regions require modified exposure to protect neurovascular structures. The tibia offers three distinct surgical corridors, each with specific indications.

The choice between medial and craniolateral tibial approaches depends on fracture configuration, implant type, and the condition of the soft tissue envelope. Medial plating is biomechanically favorable because the medial surface is flat and subcutaneous, but it places the plate directly beneath the skin incision. Craniolateral plating requires dissection through the cranial tibial muscle but provides better soft tissue coverage. Cats tolerate medial plating well, but their thin distal tibial segments may not accommodate standard plate screws.

Step-by-Step Checklist: Craniolateral Approach to the Radius

This approach provides exposure from the proximal radial metaphysis to the distal metaphysis. It is the default approach for most radial fractures in dogs and cats.

1. Position the patient in dorsal recumbency with the affected limb extended and slightly supinated. The limb should be draped to allow manipulation during reduction.
2. Palpate the lateral humeral epicondyle, the radial head, and the styloid process of the radius. Mark the skin incision along a line connecting the radial head to the styloid process, slightly lateral to the midline of the radial shaft.
3. Incise the skin from just distal to the elbow to the level of the distal radial metaphysis. The incision length should exceed the planned plate length by at least 1 cm at each end.
4. Identify the cephalic vein in the subcutaneous tissue. Retract it medially or laterally as needed. The superficial branch of the radial nerve runs with the cephalic vein and should be preserved.
5. Incise the antebrachial fascia along the same line as the skin incision. The extensor carpi radialis muscle lies lateral to the incision and the pronator teres and flexor muscles lie medial.
6. Retract the extensor carpi radialis laterally. The radial shaft is now visible beneath a thin layer of periosteum.
7. Elevate the periosteum only over the area where the plate will sit. Preserve periosteal attachment elsewhere to maintain fragment vascularity.
8. Reduce the fracture and apply the plate. Confirm plate position with intraoperative imaging before final screw placement.
9. Close the antebrachial fascia with absorbable monofilament suture in a simple continuous pattern. Close the subcutaneous layer separately, then close the skin.

The distal radial metaphysis in small-breed dogs is narrow and the extensor tendons converge near the carpus. In these patients, extend the incision distally and identify the extensor pollicis longus tendon as it crosses the distal radius. Retract this tendon laterally to avoid iatrogenic injury. Rupture of the extensor pollicis longus is a recognized complication after distal radius fracture, and the tendon is most vulnerable during plate application in this region extensor pollicis longus rupture etiologies.

Step-by-Step Checklist: Medial Approach to the Tibia

The medial approach is the most direct route to the tibial shaft and is used for the majority of tibial fracture repairs.

1. Position the patient in dorsal recumbency with the affected limb extended. The limb may be slightly rotated externally to bring the medial surface into view.
2. Palpate the tibial tuberosity, the medial malleolus, and the medial border of the tibial shaft. The skin incision follows the medial border of the tibia from the tibial tuberosity to the medial malleolus.
3. Incise the skin and subcutaneous tissue in one layer. The saphenous vein and artery run along the medial aspect of the stifle and descend distally. Identify these vessels proximally and retract them caudally.
4. Incise the deep fascia along the medial border of the tibia. The sartorius muscle inserts on the medial proximal tibia and may need partial elevation for proximal plate placement.
5. Elevate the periosteum over the planned plate bed. The medial surface of the tibia is flat and provides a stable plate contour.
6. Reduce the fracture and apply the plate. Use intraoperative imaging to confirm reduction and screw placement.
7. Close the deep fascia over the plate if possible. In many patients the plate remains subcutaneous, so meticulous skin closure is essential.

The medial approach provides limited access to the lateral tibial surface. If the fracture requires screws placed from lateral to medial, or if the fracture extends into the tibial tuberosity, a craniolateral approach is preferable.

Step-by-Step Checklist: Craniolateral Approach to the Tibia

This approach is used when the fracture configuration or implant choice favors lateral plate application.

1. Position the patient in dorsal recumbency with the limb extended and slightly internally rotated.
2. Palpate the tibial tuberosity and the lateral malleolus. The skin incision runs from the tibial tuberosity distally along the craniolateral border of the tibia.
3. Incise the skin and subcutaneous tissue. The cranial tibial muscle lies lateral to the tibial crest and covers the craniolateral surface of the proximal tibia.
4. Incise the fascia over the cranial tibial muscle. Elevate the muscle from the lateral tibial surface using blunt dissection. The long digital extensor tendon runs within the cranial tibial muscle and should be preserved.
5. Retract the cranial tibial muscle laterally to expose the lateral tibial surface. The proximal tibia is wider than the mid-shaft, so the exposure is most useful for proximal fractures.
6. Reduce the fracture and apply the plate on the lateral or craniolateral surface.
7. Close the fascia over the cranial tibial muscle, then close the subcutaneous layer and skin.

This approach requires more dissection than the medial approach and carries a higher risk of muscle trauma. It is best reserved for proximal tibial fractures where medial plating would place screws into the joint capsule or tibial tuberosity.

Monitoring and Documentation

Intraoperative monitoring during long bone approaches focuses on neurovascular integrity and implant position. The superficial branch of the radial nerve is at risk during radial approaches, and the saphenous vessels are at risk during medial tibial approaches. Direct visual inspection of these structures before closure is mandatory. Postoperative monitoring includes assessment of limb perfusion, motor function, and sensation distal to the surgical site.

Documentation should include the approach used, the structures identified and preserved, the implant type and size, and any intraoperative complications. Serial radiographic assessment is the standard method for monitoring fracture healing. The expected time to radiographic union varies by patient age, fracture location, and implant stability. Delayed union or nonunion should prompt evaluation of implant stability, fracture gap, and biologic factors such as osteoporosis or metabolic bone disease osteoporosis effects on fracture healing. In patients with compromised bone quality or failed prior fixation, adjunctive strategies such as autograft placement may be considered coccygeal vertebra autograft for radial nonunion.

Postoperative splinting is indicated for distal radial fractures and some distal tibial fractures. The splint should immobilize the joint proximal and distal to the fracture. Splint changes are typically required at 2 week intervals, and the skin should be inspected at each change for pressure sores. External coaptation is not a substitute for stable internal fixation, and excessive reliance on splints can lead to joint stiffness and muscle atrophy.

Complications and Failure Modes

Fracture repair of the radius and tibia fails through predictable mechanisms. Early detection depends on scheduled radiographic rechecks and serial physical examination, not on owner observation alone.

Implant loosening or pullout presents as progressive lameness with new peri-implant radiolucency on follow-up radiographs. Screw purchase is lost most often in metaphyseal bone of the distal radius or proximal tibia, where the cortex is thin and the medullary cavity wide. Compare immediate postoperative films with those taken at 4 to 6 weeks. Any change in implant position, screw migration, or widening of the bone-implant interface warrants restricted activity and re-evaluation in 2 weeks.

Delayed union and nonunion are diagnosed when bridging callus fails to appear within the expected time frame for the patient's age and fracture location. Radial nonunion is overrepresented in small-breed dogs, particularly after failed internal fixation, and may require revision with autograft and platelet-rich plasma as described in a 2022 case report of distal radial reconstruction Choi and Yoon, institutional publication. A septic nonunion is distinguished from a mechanical one by serial radiographs, serum amyloid A or other acute-phase protein measurement, and aerobic and anaerobic culture of aspirate or biopsy tissue.

Postoperative fracture disease describes muscle atrophy, joint stiffness, and disuse osteopenia that follow prolonged immobilization. The tibia is more forgiving than the radius in this regard because the adjacent fibula provides some stability, but a stiff hock or stifle still signals inadequate early range-of-motion exercise. Palpate joint flexion angles at each recheck and compare with the contralateral limb.

Tendon irritation or rupture is a recognized complication of distal radial plating. The extensor pollicis longus tendon passes close to the dorsal cortex of the distal radius, and plate prominence or screw protrusion can abrade it. In human patients, distal radius fracture is the most common traumatic cause of extensor pollicis longus rupture systematic review of traumatic EPL rupture etiologies. In dogs and cats, examine for loss of digital extension and palpate the dorsal distal radius for implant prominence. Remove or countersink prominent screws at the time of plate application instead of waiting for clinical signs.

Surgical site infection is detected by persistent incisional drainage, focal swelling, or fever beyond 72 hours postoperatively. Obtain aerobic and anaerobic cultures before starting antimicrobial therapy. Open fractures carry higher infection risk, and emergency stabilization with appropriate wound management reduces the likelihood of deep infection management of orthopedic emergencies.

Common Errors and Corrective Action

The most frequent error in radial approach is inadequate proximal extension. The radial nerve winds around the distal humerus and passes craniolaterally over the elbow, a limited incision that retracts aggressively can stretch it. Extend the incision proximally and identify the nerve before deep dissection.

For the tibia, the medial approach is straightforward, but the saphenous vein and nerve are easily traumatized if the incision drifts caudally. Stay directly over the medial subcutaneous border and retract the skin gently. The craniolateral approach requires identification of the cranial tibial muscle belly, a common mistake is to split it too far distally, where the muscle becomes tendinous and the intermuscular septum is less distinct.

Students frequently misjudge the plane for periosteal elevation. The periosteum of the radius and tibia is thin and adherent, especially in young animals. Elevate it sharply with a periosteal elevator, not by blunt scraping, and preserve it for closure over the implant.

Another recurring error is failure to confirm implant position with intraoperative radiographs before closure. A plate that appears well seated on the bone surface can still have a screw engaging the articular surface or the radial carpal joint. Obtain orthogonal views with the limb in a neutral position before leaving the operating room.

Limitations of the Evidence and Areas of Disagreement

The veterinary literature on surgical approaches to the radius and tibia consists largely of technique descriptions and retrospective case series. Prospective comparative trials are scarce, and expert opinion still differs on several points.

The choice between a medial and a craniolateral approach to the tibia remains contested. Advocates of the craniolateral approach cite better soft tissue coverage of the plate, while proponents of the medial approach value its simplicity and direct access to the tension surface. No controlled study has demonstrated superiority of one approach for fracture healing outcomes.

The role of biologic augmentation in fracture repair is evolving. Recombinant parathyroid hormone has shown promise in animal models of skeletal repair, but a phase 2 trial in human radius fracture patients failed its primary outcome because of effective healing in the placebo group Takahata et al, institutional publication. The relevance of these findings to clinical veterinary fracture care is uncertain, and the evidence base for routine use of bone graft substitutes, platelet-rich plasma, or mesenchymal stem cell therapy in dogs and cats remains limited.

Osteoporosis and its treatment affect fracture healing in animal models, with decreased callus formation and biomechanical strength reported systematic review of osteoporosis and fracture healing. Whether age-related bone quality changes in dogs and cats influence implant selection or healing expectations is not well characterized, and clinicians should extrapolate from human data with caution.

Referral and Escalation Criteria

Refer to a board-certified surgeon when the fracture extends into the articular surface, when there is segmental bone loss exceeding approximately one and a half times the diameter of the diaphysis, or when previous fixation has failed. Open fractures with severe soft tissue injury, fractures in very small patients where implant size is marginal, and fractures associated with metabolic bone disease also warrant specialist input.

Laboratory involvement is indicated when infection is suspected, when the patient has concurrent endocrine or renal disease that may affect healing, or when the fracture is pathologic. Serum biochemistry, urinalysis, and culture of any draining tract should be performed before revision surgery.

Regulatory reporting is rarely required for routine fracture repair. Report suspected implant failure or adverse reactions to the implant manufacturer and to the relevant national pharmacovigilance authority if a specific product defect is identified. Professional liability insurers and the AVMA practice resources provide guidance on documentation standards and adverse event reporting.

Frequently Asked Questions

How do I choose between a medial and craniolateral approach to the tibia when both are feasible?

The craniolateral approach provides access to the tibial crest, the proximal metaphysis, and the cranial cortex, making it the preferred route for proximal and mid-diaphyseal fractures. The medial approach exposes the entire subcutaneous border of the tibia with minimal muscle dissection, which suits distal diaphyseal and metaphyseal fractures. For fractures involving both the proximal and distal segments, a medial approach with proximal extension of the incision allows plate application along the flat medial surface. The craniolateral approach requires elevation of the cranial tibial muscle and careful protection of the peroneal nerve proximally. When soft tissue swelling or open wounds compromise the medial skin, the craniolateral approach preserves a healthier skin corridor. Preoperative radiographs in two orthogonal planes should guide the final decision.

What can I do when locking plates or dedicated orthopedic implant sets are unavailable?

Standard dynamic compression plates, limited-contact plates, and veterinary cuttable plates remain viable options for most radial and tibial fractures. When plate contouring is difficult, consider external skeletal fixation with positive-profile pins and connecting bars, which avoids the need for precise plate bending. For distal radial fractures in small-breed dogs, a type II external fixator combined with a cancellous bone graft can achieve union without internal fixation. Intramedullary pins alone provide poor rotational stability for the radius and should be supplemented with cerclage wire or an external fixator. If no orthopedic equipment is available, a well-molded splint or cast may manage stable, minimally displaced fractures, but commit to weekly radiographic monitoring. Refer early when implant options are exhausted instead of attempting improvisation with non-sterile or non-implant-grade materials.

How does the surgical approach differ in cats compared with dogs?

Feline radius and tibia are smaller and more curved than canine bones, which makes plate contouring more demanding and increases the risk of iatrogenic fracture during implant placement. The radial shaft in cats has a more pronounced cranial bow, so a craniolateral approach often requires subperiosteal elevation of the extensor carpi radialis muscle over a longer segment to allow straight plate application. Feline tibial anatomy permits a medial approach with less soft tissue retraction because the subcutaneous border is proportionally wider. Locking plates are particularly advantageous in cats because they do not require exact bone contouring. Feline bone heals faster than canine bone, but the smaller implant-bone interface means screw purchase is critical. Use 2.0 mm or 2.4 mm implants in most adult cats and avoid over-drilling the far cortex.

What documentation should I maintain during and after the procedure?

Record the approach used, the length of the skin incision, the muscles elevated or transected, and the neurovascular structures identified and protected. Document the implant type, size, and position with intraoperative radiographs or fluoroscopy images. Note the number of screws placed in each fragment and whether the far cortex was engaged. Postoperative radiographs should be labeled with the patient identification, date, and limb orientation. In the medical record, describe the fracture configuration, the reduction quality, and the stability of fixation after implant placement. Include a wound closure summary with suture patterns and materials. Photographs of the approach and final construct are valuable for client communication and for review if complications arise. The American College of Veterinary Surgeons practice resources emphasize complete operative records as part of standard surgical care.

How should I explain the need for a second surgery to a client when the first fixation fails?

Frame the discussion around the goal of restoring limb function instead of assigning blame. Explain that bone healing depends on both the implant and the biologic environment, and that some fractures fail to unite despite appropriate surgical technique. Describe the specific reason for failure, such as implant loosening, infection, or delayed union, using language the client can understand. Present the revision options with their expected outcomes and costs, and be honest about the uncertainty of success. The MSD Veterinary Manual provides client-facing summaries of fracture complications that can support your explanation. Offer a written estimate for the revision procedure and discuss postoperative care requirements, including activity restriction and recheck radiographs. If the case exceeds your comfort level, recommend referral to a surgical specialist before the bone deteriorates further.

When should I refer a radial or tibial fracture to a specialist instead of attempt primary repair?

Refer when the fracture is open with severe contamination, when there is segmental bone loss exceeding 25 percent of the bone length, or when the fracture extends into the articular surface with displacement. Refer also when you lack the implant inventory to achieve stable fixation, when previous fixation has failed, or when the patient has comorbidities such as metabolic bone disease that complicate healing. The AVMA professional practice resources advise that timely referral improves outcomes for complex orthopedic injuries. A single case report of distal radial nonunion treated with coccygeal autograft and platelet-rich plasma illustrates the advanced reconstructive options available at referral centers, but such techniques require specialized equipment and experience (coccygeal autograft and platelet-rich plasma reconstruction). If you are uncertain whether you can achieve anatomic reduction and stable fixation, refer before multiple failed attempts compromise the soft tissue envelope.

Related Clinical & Scientific Guides

• Perioperative Antibiotic Prophylaxis: Timing and Selection
• Surgical Approaches to the Femur and Stifle
• Fracture Healing Assessment: Radiographic and Clinical Evaluation

References and Further Reading

• Endogenous tissue engineering: PTH therapy for skeletal repair.. 2012.
• Use of coccygeal vertebra autograft and platelet-rich plasma for treating a distal radial nonunion fracture in a small-breed dog.. 2022.
• Management of orthopedic emergencies.. 1994.
• Etiology of Traumatic Causes of Extensor Pollicis Longus Tendon Rupture: A Systematic Review.. 2024.
• Minimal Clinically Important Difference for PROMIS Physical Function in Patients With Distal Radius Fractures.. 2019.
• The effect of osteoporosis and its treatment on fracture healing a systematic review of animal and clinical studies.. 2021.
• American College of Veterinary Surgeons Animal Health Resources. American College of Veterinary Surgeons.
• MSD Veterinary Manual, Professional Edition. MSD Veterinary Manual.
• American Veterinary Medical Association Practice Resources. American Veterinary Medical Association.

Related Articles

• Surgical Approaches to the Femur and Stifle
• Surgical Approaches to the Humerus and Elbow
• Surgical Approaches to the Scapula and Shoulder
• Surgical Approaches to the Mandible and Maxilla
• Surgical Approaches to the Pelvis and Acetabulum

This article is educational professional reference material for veterinary audiences. It is not a substitute for veterinary diagnosis, individual clinical judgment, current product labeling, or applicable regulatory requirements.