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Tibia Reconstruction Treatment & Management

  • Author: Fabio Santanelli di Pompeo, MD, PhD; Chief Editor: Jorge I de la Torre, MD, FACS  more...
 
Updated: Aug 15, 2013
 

Medical Therapy

Tetanus prophylaxis is usually administered to patients with open trauma. Specific antibiotic therapy based on the results of cultural samples is administered if necessary.

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Surgical Therapy

Trauma

Perform emergency nonsurgical reduction of the fracture and immobilization. Daily dressing changes with peroxide solution and saline washes are indicated to control infection. Wound debridement is also indicated.

Timing of reconstruction in open fractures has always been a matter of discussion. In fact, performing primary closure of traumatic wounds with tissue viability that is still in question is often discouraged; however, primary flap cover within 72 hours has been determined to yield better results and a lower infection rate than delayed or late closure. Therefore, an early reconstruction may underestimate or overestimate the amount of bone to excise and replace, while a delayed reconstruction may be at higher risk of infective and vascular complications. The timing of bone reconstruction depends on the time passed from injury at the first referral of the patient, on soft tissue involvement and viability, and on the width of the bone gap to be filled.

Within the first 72 hours after the trauma, simple lesions with limited or no soft tissue involvement are treated immediately with radical debridement and bone grafting or bone flap transfer in one stage. Complex lesions with soft tissue involvement are treated with muscle free flap and delayed bone grafting or a one-stage free osteomyocutaneous flap.

Patients referred 72 hours after trauma usually present with infected wounds and require debridement and delayed reconstruction. In summary, see the following:

  • Immediate reconstruction (within 72 h)
    • One-stage surgery - Soft tissue and bone reconstruction (muscle flap and bone grafts/osteocutaneous-osteomyocutaneous flap)
    • Two-stage surgery - Soft tissue cover (pedicled free muscle flap); bone reconstruction (bone graft/flap)
  • Delayed reconstruction (>72 h)
    • One-stage surgery - Soft tissue and bone reconstruction (muscle flap and bone grafts/osteocutaneous flap)
    • Two-stage surgery - Soft tissue cover (pedicled free muscle flap); bone reconstruction (bone graft/flap)

Usually, reconstruction of the tibia for open fractures is a function of the characteristics of the bone gap (≥ 6 cm) resulting from wound debridement and fracture reduction and of the characteristics of soft tissue damage (local or free flap).

Tumors

The choice of the reconstructive procedure depends on the primary pathology. Malignant bone neoplasms usually require wide resection with at least 2 cm of free tumor margin and, occasionally, en bloc resection of regional muscles and overlying skin with the biopsy site and nodal clearance.

Enneking has proposed a treatment protocol for staged bone lesions, in which G0 is benign, G1 is low-grade malignant, G2 is high-grade malignant, T0 is intracapsular, T1 is extracapsular/intracompartmental, and T2 is extracapsular/extracompartmental.[8] See the following:

  • Tumor stage IA and type G1, T1, M0 - Local wide resection
  • Tumor stage IB and type G1, T2, M0 - Wide amputation
  • Tumor stage IIA and type G2, T1, M0 - Local radical resection
  • Tumor stage IIB and type G2, T1, M0 - Radical amputation
  • Tumor stage IIIA and type G1-2, T1, M1 - Palliative treatment
  • Tumor stage IIIB and type G1-2, T2, M1 - Palliative treatment

The resulting complex defect often requires a free osteo-osteocutaneous-osteomyocutaneous reconstruction to avoid amputation. Surgical treatment is usually augmented by systemic adjuvant or postoperative chemotherapy.

Osteomyelitis

Sequestrectomy and resection of scarred and infected bone and soft tissue are needed to eradicate infection and achieve a viable vascular environment. Plan the reconstruction after the defect is evaluated.

Pseudoarthrosis

Treatment depends on the age of the patient and the severity of the disease. In advanced stages, when gaps larger than 3 cm must be filled or when conventional bone grafting has failed, a free vascularized fibula graft is the treatment of choice.

Bone reconstruction technique

Bone defects smaller than 6 cm with little or no soft tissue damage following traumas (Gustilo stage 1-2, Byrd stage I-II) and resection of tumors with acquired or congenital pathology are treated as described below.

Generally, in patients with traumas or resections of acquired or congenital pathologies who present with a well-vascularized bed and little or no soft tissue damage, bone defects smaller than 6 cm can be repaired easily with autologous transplantation of devascularized cancellous bone harvested from the iliac crest and stabilized with external fixation. With this technique, nearly 90% of patients with a defect no larger than 2.5 cm achieve bone union, with low morbidity at the donor site. Currently, no unequivocal reports exist regarding the percentage of bone unions for gaps of 2.5-6 cm.

The autologous transplantation of cancellous bone usually results in poor results, often complicated by stress fractures. The primary limitations of the use of cancellous bone are (1) the quantity of bone tissue available (defects >6 cm are difficult to fill) and (2) the prolonged immobilization time required before complete functional recovery and full-load stability.

Bone defects larger than 6 cm with little or no soft tissue damage following traumas (Gustilo stage 1-2, Byrd stage I-II) or resection for acquired or congenital pathology are treated as described below.

When the bone defect is larger than 6 cm, the transplantation of cortical bone is indicated. Enneking has successfully treated skeletal defects as wide as 25 cm with single or double devascularized fibula grafting, reporting a union success rate of 67% for gaps of 7.5-12.5 cm, with an incidence rate of stress fractures of only 17%.[12] A similar success rate of 68% was reported for gaps of 12.5-25 cm, with a higher incidence of stress fractures (58%).

Cortical bone autotransplants have limitations. A long period for revascularization is required. A long incorporating and remodeling time, undergoing creeping substitution, is necessary. Spontaneous stress fractures may occur late (reported to occur as many as 3 y after surgery). Finally, late stress fractures cause pseudoarthrosis at the fracture site in approximately 33% of these patients. Nevertheless, the success rate reported encourages the use of this technique for the reconstruction of long bone defects, especially following tumor resection.

The biomolecular basis responsible for the incorporation of these devascularized bone transplants is termed creeping substitution. This does not occur if (1) vascularization at the bed site is not good; (2) infection is present at the bed site; (3) soft tissue cover is inadequate; or (4) the bone defect is larger than 6 cm and is associated with comminuted or denuded fragments in a devascularized or infected bed with extended soft tissue damage or following traumas (Gustilo stage 3, Byrd stage III-IV), resection for tumors, or acquired or congenital pathology.

In patients with bone defects larger than 6 cm in devascularized and/or infected bed sites, the use of autologous microvascular bone flaps is the method of choice.

The free fibula-protibia transfer is not an innovative procedure in the orthopedic field but can be considered the evolution of an old intuition by orthopedic surgeons, such as Putti, who were transferring the fibula as a nonvascularized graft to reconstruct congenital absence of the tibia. It is also the result of the recent biological advances in tissue vascularization and bone microcirculation of fractures treated with autologous bone transplantation.

Furthermore, the fibula is not essential for load-bearing and ambulation, but it can be used to reconstruct the tibia when the main support of lower the leg is no longer able to fulfill its function. The choice of a single- or double-barrel fibula depends on the characteristics of the gap and the need for support.

Lee and Park report a 93% success rate for the microsurgical reconstruction of traumatic tibial defects.

Soft tissue reconstruction

The choice of the soft tissue reconstructive procedure mainly depends on the location and extent of the soft tissue defect. Usually, soft tissue reconstruction is mandatory for open fractures and for resection related to osteomyelitis, but it is questionable for closed fractures and for resection related to pseudoarthrosis or tumors.

Soft tissue reconstruction has been clearly demonstrated to affect fracture healing and callus formation in open fractures. For defects of the superior third of the leg, use the medial/lateral gastrocnemius, free muscle flap, or free osteocutaneous fibula (Clinical Case 3; see the images below).

Clinical Case 3. Preoperative radiograph of the tr Clinical Case 3. Preoperative radiograph of the traumatized leg after early debridement and immobilization with external and internal synthesis. A displaced spiral fracture of the superior third of the tibia with loss of bone tissue is evident (Gustilo stage 3c).
Clinical Case 3. Preoperative drawing. Schematic d Clinical Case 3. Preoperative drawing. Schematic drawing of the preoperative bone defect and the planned contralateral flap.
Clinical Case 3. Preoperative view of the left don Clinical Case 3. Preoperative view of the left donor leg with schematic drawing of the osteocutaneous peroneal flap.
Clinical Case 3. Intraoperative picture of the fla Clinical Case 3. Intraoperative picture of the flap. Intraoperative view of the harvested peroneal osteocutaneous flap.
Clinical Case 3. Postoperative drawing. Schematic Clinical Case 3. Postoperative drawing. Schematic drawing of the desired postoperative outcome at the recipient and donor areas.
Clinical Case 3. Postoperative radiograph of the o Clinical Case 3. Postoperative radiograph of the operated leg in anteroposterior view. The peroneal flap is easily identified after being infibulated into tibial stumps.
Clinical Case 3. Anteroposterior radiograph of the Clinical Case 3. Anteroposterior radiograph of the tibia 6 months after surgery, with a satisfactory bone alignment and union.
Clinical Case 3. Postoperative result in anteropos Clinical Case 3. Postoperative result in anteroposterior view with the leg bearing full body weight.

For defects of the middle third of the leg, use a soleus flap, a free muscle flap (Clinical Case 4; see the images below).

Clinical Case 4. Osteomyelitis of the middle third Clinical Case 4. Osteomyelitis of the middle third of the tibial shaft. Shown is a long-standing osteocutaneous fistula secreting pus.
Clinical Case 4. Preoperative planning. Drawing of Clinical Case 4. Preoperative planning. Drawing of a right rectus abdominis muscle flap based on the inferior epigastric pedicle.
Clinical Case 4. Intraoperative picture. The right Clinical Case 4. Intraoperative picture. The right rectus abdominis flap isolated on its vascular pedicle.
Clinical Case 4. Postoperative result. Oblique vie Clinical Case 4. Postoperative result. Oblique view of the perfectly healed rectus abdominis muscle flap transferred in place and covered by a meshed split-thickness skin graft.

Another option for defects of the middle third of the leg is a free osteocutaneous fibula (Clinical Case 1, see the images below).

Clinical Case 1. Preoperative radiograph of the tr Clinical Case 1. Preoperative radiograph of the traumatized leg. A multiple segmental and exposed spiral fracture of the tibia is identified (Gustilo stage 3c).
Clinical Case 1. Radiograph of the reduced fractur Clinical Case 1. Radiograph of the reduced fracture. Anteroposterior radiograph of the fractured leg after reduction and immobilization with an external fixation device. Pseudoarthrosis of the tibia.
Clinical Case 1. Early postoperative view of the e Clinical Case 1. Early postoperative view of the emergency management of a middle-third tibial fracture. Reduction of the fracture and skin grafting to the defect.
Clinical Case 1. Radiologic evidence of the pseudo Clinical Case 1. Radiologic evidence of the pseudoarthrosis. Laterolateral radiograph of tibial pseudoarthrosis that shows bone nonunion and anterior bowing.
Clinical Case 1. Preoperative picture. Lateral vie Clinical Case 1. Preoperative picture. Lateral view of the left leg, which now has pseudoarthrosis with anterior bowing of the tibia at its middle third.
Clinical Case 1. Preoperative drawing. Schematic d Clinical Case 1. Preoperative drawing. Schematic drawing of the preoperative defect and of the planned contralateral flap.
Clinical Case 1. Preoperative view of the donor le Clinical Case 1. Preoperative view of the donor leg with schematic drawing of the osteocutaneous peroneal flap.
Clinical Case 1. Postoperative drawing. Schematic Clinical Case 1. Postoperative drawing. Schematic drawing of the postoperative desired outcome at the recipient and donor areas.
Clinical Case 1. Intraoperative picture. The osteo Clinical Case 1. Intraoperative picture. The osteocutaneous peroneal flap synthesized to the recipient site, with its skin island.
Clinical Case 1. Early postoperative radiograph of Clinical Case 1. Early postoperative radiograph of the operated leg in anteroposterior view. The peroneal flap is easily identified after being infibulated into tibial stumps.
Clinical Case 1. Postoperative picture. Lateral vi Clinical Case 1. Postoperative picture. Lateral view of the left leg 1 month after surgery.
Clinical Case 1. Postoperative radiograph (1 mo) o Clinical Case 1. Postoperative radiograph (1 mo) of the leg. Anteroposterior radiograph of the tibia, which shows satisfactory bone alignment and healing 1 month after surgery.

For defects of the inferior third of the leg, use a free muscle flap or free osteocutaneous fibula (Clinical Case 2; see the images below).

Clinical Case 2. Preoperative picture. Medial view Clinical Case 2. Preoperative picture. Medial view of the left leg with exposed fracture of the inferior third of the tibia (Gustilo stage 3c) and loss of skin cover.
Clinical Case 2. Preoperative picture. Lateral vie Clinical Case 2. Preoperative picture. Lateral view of the left leg with exposed fracture of the inferior third of the tibia (Gustilo stage 3c).
Clinical Case 2. Preoperative radiograph of the tr Clinical Case 2. Preoperative radiograph of the traumatized leg after early debridement and immobilization with external fixation. Shown is a double complete fracture of the tibia and fibula at their inferior third with loss of substance (Gustilo stage 3c).
Clinical Case 2. Preoperative drawing. Schematic d Clinical Case 2. Preoperative drawing. Schematic drawing of the preoperative bone defect and the planned contralateral flap.
Clinical Case 2. Early postoperative radiograph of Clinical Case 2. Early postoperative radiograph of the operated leg in anteroposterior view. The peroneal flap is easily identified after being infibulated into tibial stumps.
Clinical Case 2. Postoperative picture. Postoperat Clinical Case 2. Postoperative picture. Postoperative result in anteroposterior view.
Clinical Case 2. Late postoperative radiograph. An Clinical Case 2. Late postoperative radiograph. Anteroposterior radiograph of the tibia 6 months after surgery, with a satisfactory bone alignment and union.
Clinical Case 2. Postoperative picture. Medial vie Clinical Case 2. Postoperative picture. Medial view of postoperative result.
Clinical Case 2. Preoperative picture. Frontal vie Clinical Case 2. Preoperative picture. Frontal view of the right leg with a wide defect of the superior third of the tibia resulting from segmental exposed fracture (Gustilo stage 3c).

Bone stabilization

The choice of bone stabilization depends on the bone reconstruction technique chosen. Free cancellous bone grafts warrant external fixation. Free cortical bone grafts warrant external fixation, external and internal fixation, and internal fixation. Free vascularized bone flaps warrant external fixation and inlay fibula (see the images below), external fixation and onlay fibula with or without a step cut and compressive screws, internal fixation by inlay fibula and intramedullary nail, or internal fixation by onlay fibula with or without a step cut and compressive screws.

Clinical Case 2. Early postoperative radiograph of Clinical Case 2. Early postoperative radiograph of the operated leg in anteroposterior view. The peroneal flap is easily identified after being infibulated into tibial stumps.
Clinical Case 3. Postoperative drawing. Schematic Clinical Case 3. Postoperative drawing. Schematic drawing of the desired postoperative outcome at the recipient and donor areas.
Clinical Case 3. Postoperative radiograph of the o Clinical Case 3. Postoperative radiograph of the operated leg in anteroposterior view. The peroneal flap is easily identified after being infibulated into tibial stumps.

To obtain a faster healing of the fracture lines, some cancellous bone chips obtained from the iliac crest may be used.

Other considerations

The ablation of tibial tumors usually results in massive loss of tibial bone (often >6 cm), with possible preservation of soft tissues and vascular pedicles. In these patients, the reconstructive procedure first appears to be less problematic compared to high-energy traumas, but the use of adjunctive treatments such as chemotherapy or radiotherapy often compromises the result of the reconstruction. For example, these adjunctive treatments may affect the rapidity of bone union and the hypertrophy of the fibular bone.

The use of the free fibula flap for the reconstruction of tibial defects following resection for chronic osteomyelitis has not always yielded satisfactory results. Among the factors that influence these results are fibrosis of the soft tissues surrounding bone and vascular structures and resulting venous hypertension. Internal fixation methods have been avoided to reduce the risk of exacerbating the osteomyelitis.

The treatment of congenital pseudoarthrosis has always been problematic because of the difficulty of matching the different lengths of the tibial bones in young patients during growth age and because of the possible complications following free fibular transplant in children, such as valgus deformity of the tibia or ankle and rigidity and atrophy of the ankle. Nevertheless, free fibula transplantation remains the technique of choice. Regarding this, remember that in young patients, transplanting fibular bone, with its epiphyseal growing nucleus, is possible to reconstruct contralateral bone and restore limb growth.

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Preoperative Details

With the use of the fibula flap, the peroneal artery of the donor limb is sacrificed. A preoperative evaluation of the vascular flow to the donor leg must be performed to avoid iatrogenous ischemia of the foot. The same evaluation must be conducted on the recipient leg to assess for the presence of valid arterial inflow and the absence of a peronea magna anomaly.

In addition to a clinical evaluation of the pulses of the anterior tibial artery at the level of the dorsal surface of the foot and of the posterior tibial artery at the level of the medial malleolus, an instrumental evaluation also must be in the routine. Currently, color Doppler ultrasound scanning is the procedure of choice to assess vascular patency and flow directions, while angiography or arteriography is left for doubtful cases.

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Intraoperative Details

Fibula harvesting is discussed below.

Osseus flap

Position the patient supine on the operating table. Raise the flap under ischemia with the patient's knee flexed 90° and the foot fixed to the table with the girdle interiorly rotated.

Carry an incision on the edge of the fibula, which is palpable under the lateral side of the leg. Identify and preserve the sciatic popliteal external nerve, which runs under the head of the fibula. Dissect the peroneal muscles off the anterior face of the fibula, and incise the lateral septum to gain access to the extensor compartment. Dissect the extensor hallucis longus and digitorum longus free until the anterior tibial vessels, the tibial nerve, and the interosseus membrane are identified.

Carry the dissection posteriorly by incising the flexor compartment and dissecting the gastrocnemius, soleus, and flexor digitorum longus off the posterior face of the fibula. Identify the peroneal vessels proximally and distally.

With a reciprocating saw, osteotomize the fibula distally and proximally to harvest exactly the required length of bone. Section the peroneal bundle distally while the interosseus membrane is exposed and incised.

Completely retract the segment, and dissect the pedicle up to its origin at the level of the bifurcation from the posterior tibial artery. Spare the proximal 3 cm and distal 5 cm of fibula to protect the external sciaticus popliteus nerve and ankle stability.

The segment of fibula harvested may measure as long as 26-30 cm and as wide as 1.5 cm. The graft is usually remodeled in place before the pedicle is cut.

Depending on the type of osteosynthesis chosen, the bone ends are rounded with the use of a rotating drill to be more easily infibulated in the tibial medullary cavities or step cuts are performed at the fibula ends if osteosynthesis with compression screws is planned. Once the graft is customized and the recipient area is ready, cut the pedicle free and transfer the flap into the defect. Place Redon drainage for continuous suction of the wound near the fracture site.

A purely osseus flap is rarely used in the reconstruction of traumatic tibial defects because of its frequent association with soft tissue damage and because of the postoperative edema, which makes primary wound closure difficult. An osseous flap is indicated in the reconstruction of tibial defects following resection for pseudoarthrosis, but it is rarely used for tumors or osteomyelitis.

Recipient tibial area

After debridement or en bloc excision, in a clean and vascularized recipient bed, stabilize the tibial stumps with the aid of an external fixation device and prepare the medullary cavities to receive the graft.

Accomplish bone osteosynthesis of the fibula flap through infibulation or step osteotomies and compressions screws. Cancellous bone chips may be used adjunctively at the level of the osteosynthesis to improve healing.

A vascular anastomosis is usually performed with the posterior tibial artery and vein in a lateroterminal pattern in a safe zone, more often at the level of the ankle. The fibula flap also may be used as a flow-through flap to revascularize the leg, with the ends of the fibular artery anastomosed to the stumps of the posterior/anterior tibial artery to reconstruct its continuity.

In 1993, Banic and Hertel offered 2 suggestions for an earlier recovery of stability and load-bearing.[13] The first is to use a double-barrel free fibular vascularized flap. The second is to put cancellous bone between the fibula-tibial interface.

When bone gaps smaller than 10 cm are to be repaired, a whole-length fibula may be split in 2 segments vascularized from the same pedicle. If the gap is larger than 10 cm, a double-fibula free flap is preferred. A double-strut free vascularized fibula can withstand a higher torque and mechanical stress than single strut.

Donor area

Once the fibula graft is removed, seal the fibular stumps left in place with bone wax. Release the tourniquet and obtain hemostasis. Place a suction drain in between the muscles, exiting at the inferior limit of the skin incision. Suture the peroneal muscles to the soleus, and repair the fascial layer and the skin. Apply a protective cast to hold the ankle in correct functional position during healing.

The morbidity of the donor area of the fibula bone flap is negligible in adults. In children, some instances of tibial curvature and of valgus deformity of the ankle have been reported. Thus, a distal tibiofibular fusion is recommended in children to avoid valgus deformity of the ankle.

Osteocutaneous flap

See the images below. Harvest the skin flap, including the deep fascia of the leg along its longitudinal axis, in correspondence with the posterior intermuscular septum of the leg, which separates peroneal from soleus muscles.

Clinical Case 1. Preoperative view of the donor le Clinical Case 1. Preoperative view of the donor leg with schematic drawing of the osteocutaneous peroneal flap.
Clinical Case 1. Intraoperative picture. The osteo Clinical Case 1. Intraoperative picture. The osteocutaneous peroneal flap synthesized to the recipient site, with its skin island.
Clinical Case 3. Preoperative view of the left don Clinical Case 3. Preoperative view of the left donor leg with schematic drawing of the osteocutaneous peroneal flap.
Clinical Case 3. Intraoperative picture of the fla Clinical Case 3. Intraoperative picture of the flap. Intraoperative view of the harvested peroneal osteocutaneous flap.

Skin vascularization comes from 3 types of perforating vessels originating from the peroneal artery. The first type is the fasciomyocutaneous branches, which are located mainly in the superior third of the leg and run through the soleus muscle. The second type is the septal branches, which are present along the leg, vascularizing both the muscles and the skin. The third is the fascioseptal branches, which give blood to the skin only but are missing in 20% of patients.

Always close the donor area with a skin graft when the skin paddle is larger than 6 cm. Harvesting of the osteocutaneous flap may produce limitations of hallucis flexion and cosmetic defects due to skin grafting of the lateral leg.

Osteomuscular flap

The entire lateral half of the soleus muscle can be harvested together with the fibula flap. The dissection is similar to that already described except that after completing the anterior dissection of the fibula, carry this in a posterior plane located between the lateral head of the gastrocnemius and the soleus until the midline of the soleus is identified.

At this level, the dissection deepens laterally among the soleus and the flexor longus hallucis until the peroneal vessels are identified. The osteomuscular flap may be particularly indicated in trauma patients with extensive soft tissue damage and dead space that must be filled.

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Postoperative Details

Position the patient supine, possibly on an air/water mattress, with both legs slightly elevated. The donor leg is held in functional position by an elastic bandage or a protective cast. The recipient leg is usually held in position by an external fixation device and wrapped in a soft bandage with a window for frequent inspections.

Evaluate suction drains daily and remove them only when 20-30 mL of serum is collected. Perform continuous washing drainage of the recipient area with isotonic sodium chloride solution or 30% povidone-iodine solution, mainly in trauma patients. Continue until no more blood or corpuscular secretion is drained (usually 7 d).

If a skin graft has been applied to the donor leg, remove the dressing together with the stitches on the fifth day. No ambulation is allowed within the first 2 weeks.

After 2-3 weeks, the donor area has also healed. Remove the cast or elastic bandage and ask the patient to walk on the donor leg with the aid of crutches. The external fixation device used to immobilize the fibula flap and to stabilize the osteosynthesis is left in place, and the patient is discharged.

Maintain the fixation method until radiologic findings demonstrate a good osteointegration and integration of the graft. Usually, the external fixation device is removed after complete bone union is accomplished (generally 10 wk). Full load-bearing capacity is recovered gradually, and it is recovered completely only after 4-6 months postsurgery. Functional rehabilitation of the joints may be started early after surgery, eventually substituting the external fixation device with an orthopedic tutor.

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Follow-up

With the aid of a Doppler probe, monitor the viability of the free fibula flap in the early postoperative period every hour the first day, every 2 hours the second and third days, and 4 times per day until 2 weeks postoperatively to check the patency of the microanastomosis and to survey the skin or muscle island perfusion.

Evaluate bone union with serial radiographs or bone scans at 1 month, 3-6 months, and 1 year following surgery (see the images below). Radiologically, bone union is achieved when continuity is obtained in 2 planes and the fracture line has disappeared. Stress fractures or curvature can be easily identified.

Clinical Case 2. Preoperative radiograph of the tr Clinical Case 2. Preoperative radiograph of the traumatized leg after early debridement and immobilization with external fixation. Shown is a double complete fracture of the tibia and fibula at their inferior third with loss of substance (Gustilo stage 3c).
Clinical Case 2. Early postoperative radiograph of Clinical Case 2. Early postoperative radiograph of the operated leg in anteroposterior view. The peroneal flap is easily identified after being infibulated into tibial stumps.
Clinical Case 2. Late postoperative radiograph. An Clinical Case 2. Late postoperative radiograph. Anteroposterior radiograph of the tibia 6 months after surgery, with a satisfactory bone alignment and union.

A comprehensive rehabilitation program including early static quadriceps exercises is started on the third day, passive stretching and mobilization of all joints is begun after 1 week, and subsequent active mobilization follows.

Later, non-weightbearing, protected mobilization is followed by limited and full weightbearing exercises and gait analysis. Assess patients for complications, time to bone union, and functional recovery. Bone union is achieved clinically when full weightbearing without splints or pain is obtained. Functional recovery is achieved when full mobilization without aids or splints and an acceptable range of joint motion are achieved (see the images below).

Clinical Case 2. Postoperative picture. Postoperat Clinical Case 2. Postoperative picture. Postoperative result in anteroposterior view.
Clinical Case 2. Late postoperative radiograph. An Clinical Case 2. Late postoperative radiograph. Anteroposterior radiograph of the tibia 6 months after surgery, with a satisfactory bone alignment and union.
Clinical Case 3. Postoperative result in anteropos Clinical Case 3. Postoperative result in anteroposterior view with the leg bearing full body weight.
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Complications

Complications may be divided into general and specific, and specific complications can be related to the recipient or to the donor area. General complications are those related to each surgical procedure (eg, reaction to anesthetics, hematoma, seroma, infection).

Specific complications are those related to fibula harvesting, tibial reconstruction, and free flap surgery. Specific complications related to the donor area may be divided into early and late complications. Other than a 2% incidence of infection, the most common early complications reported are decreased flexion power of the big toe, paresthesia, dysesthesia of the dorsum of the foot, and, only rarely, foot ischemia and lesions of the sciaticus popliteus nerve with loss of foot dorsiflexion. Other common perioperative complications are skin graft loss, cellulitis, wound dehiscence, and abscess.[14] Among the 27% incidence of late complications reported, the most common are edema, pain with ambulation, stiffness of the ankle, hypertrophic scarring, and, only rarely, instability and tibial curvature in children.

Fibular harvesting does not cause any relevant functional deficit to adults, while a few incidents of tibial curvature and valgus deformity of the ankle are reported in children.

Early complications related to the recipient area are arterial or venous thrombosis of the anastomosis, ischemia or congestion of the skin island, soft tissue infection and breakdown, limb shortening or lengthening, and, only rarely, posterior tibial artery thrombosis.

Late recipient site complications are stress fractures (up to 40%; average, 25%), instability of the osteosynthesis, delayed bone union, nonunion, pseudoarthrosis, tibial malalignment or recurvatum, and pain and/or edema after long-distance walking.

With regard to microvascular complications, the bone flap may tolerate venous thrombosis because of spontaneous bleeding from the medullary canal, but vein drainage of the skin paddle must be supported with leech therapy. In the worst scenario of an arterial thrombosis, the fibula can survive in place as a simple graft. On the contrary, the skin island is very delicate because it relies on few and small perforating vessels and is very sensitive to circulatory changes.

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Outcome and Prognosis

Lee and Park reported a 93% success rate in the reconstruction of extensive tibial fractures with free vascularized fibula flaps.[15] Of 46 patients, 43 achieved bone union after an average of 3.75 months (range of 3-7 mo) from surgery. Partial weightbearing was started after bone union with the aid of crutches or splints.

Free fibular transplantation following cancer resection often achieves lower success rates than the same procedure used for traumas.

In 1992, Han and coworkers reported the results of 69 patients affected by bone cancer who underwent tibial resection and reconstruction with the free fibula; 46 patients (67%) obtained bone union, while another 10 needed a further procedure for bone union, bringing the success rate to 81%.[16]

Han and coworkers also reported the results of 60 patients affected by chronic osteomyelitis who were treated with free contralateral fibula flaps and achieved a primary union success rate of 48%.[16] After a second procedure, the final success rate was 77%.

In 1983, Weiland et al reported a bone union rate of 60% in 13 patients.[17] Free fibula transplantation remained the technique of choice for congenital pseudoarthrosis. Gilbert and Wood reported 43 cases of congenital pseudoarthrosis treated with free fibula protibia from 1976-1992, some of whom were operated on several times and observed for up to 5 years, with a final success rate of 91%.[18] Morrissy and colleagues reported lower success rates in 40 patients, with a union rate of 55%.[19]

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Contributor Information and Disclosures
Author

Fabio Santanelli di Pompeo, MD, PhD Associate Professor of Plastic Surgery, Sapienza University of Rome School of Medicine and Psychology; Chief of Plastic Surgery Unit, Sant'Andrea Hospital, Rome

Fabio Santanelli di Pompeo, MD, PhD is a member of the following medical societies: American Society of Plastic Surgeons, International Confederation for Plastic and Reconstructive and Aesthetic Surgery, European Association of Plastic Surgeons, Societa Italiana di Microchirurgia, Swedish Associations of Plastic Surgeons, Osservatorio Nazionale Identit? di Genere

Disclosure: Nothing to disclose.

Coauthor(s)

Francesca Romana Grippaudo, MD, PhD Assistant Professor, Department of Plastic Surgery, S Andrea Hospital, Faculty of Medicine and Psycology, Sapienza University of Rome, Italy

Francesca Romana Grippaudo, MD, PhD is a member of the following medical societies: International Confederation for Plastic and Reconstructive and Aesthetic Surgery, Italian Society of Plastic Reconstructive Surgery and Aesthetics

Disclosure: Nothing to disclose.

Guido Paolini, MD, PhD 

Disclosure: Nothing to disclose.

Luca Francesco Renzi, MD, PhD Staff Physician, Department of Plastic Surgery, Az Ospedaliera Sant'Andrea, Italy

Disclosure: Nothing to disclose.

Specialty Editor Board

Francisco Talavera, PharmD, PhD Adjunct Assistant Professor, University of Nebraska Medical Center College of Pharmacy; Editor-in-Chief, Medscape Drug Reference

Disclosure: Received salary from Medscape for employment. for: Medscape.

Chief Editor

Jorge I de la Torre, MD, FACS Professor of Surgery and Physical Medicine and Rehabilitation, Chief, Division of Plastic Surgery, Residency Program Director, University of Alabama at Birmingham School of Medicine; Director, Center for Advanced Surgical Aesthetics

Jorge I de la Torre, MD, FACS is a member of the following medical societies: American Burn Association, American College of Surgeons, American Medical Association, American Society for Laser Medicine and Surgery, American Society of Maxillofacial Surgeons, American Society of Plastic Surgeons, American Society for Reconstructive Microsurgery, Association for Academic Surgery, Medical Association of the State of Alabama

Disclosure: Nothing to disclose.

Additional Contributors

Christian E Paletta, MD, FACS Clinical Professor of Surgery and Instructor of Surgery, Department of Surgery, Dartmouth-Hitchcock Medical Center, Geisel School of Medicine at Dartmouth; Clinical Professor of Surgery and Instructor in Surgery, Rwanda Human Resources for Health, Rwanda Ministry of Health and Clinton Health Access Initiative

Christian E Paletta, MD, FACS is a member of the following medical societies: American Society of Plastic Surgeons, Plastic Surgery Research Council, American Council of Academic Plastic Surgeons, American College of Surgeons, American Medical Association

Disclosure: Nothing to disclose.

Acknowledgements

B Sekhar Chandrasekhar, MD Associate Professor, Department of Surgery, Division of Plastic and Reconstructive Surgery, University of Southern California

B Sekhar Chandrasekhar, MD is a member of the following medical societies: American Association of Plastic Surgeons, American College of Surgeons, American Society for Reconstructive Microsurgery, and California Medical Association

Disclosure: Nothing to disclose.

References
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Clinical Case 1. Preoperative radiograph of the traumatized leg. A multiple segmental and exposed spiral fracture of the tibia is identified (Gustilo stage 3c).
Clinical Case 1. Radiograph of the reduced fracture. Anteroposterior radiograph of the fractured leg after reduction and immobilization with an external fixation device. Pseudoarthrosis of the tibia.
Clinical Case 1. Early postoperative view of the emergency management of a middle-third tibial fracture. Reduction of the fracture and skin grafting to the defect.
Clinical Case 1. Radiologic evidence of the pseudoarthrosis. Laterolateral radiograph of tibial pseudoarthrosis that shows bone nonunion and anterior bowing.
Clinical Case 1. Preoperative picture. Lateral view of the left leg, which now has pseudoarthrosis with anterior bowing of the tibia at its middle third.
Clinical Case 1. Preoperative drawing. Schematic drawing of the preoperative defect and of the planned contralateral flap.
Clinical Case 1. Preoperative view of the donor leg with schematic drawing of the osteocutaneous peroneal flap.
Clinical Case 1. Postoperative drawing. Schematic drawing of the postoperative desired outcome at the recipient and donor areas.
Clinical Case 1. Intraoperative picture. The osteocutaneous peroneal flap synthesized to the recipient site, with its skin island.
Clinical Case 1. Early postoperative radiograph of the operated leg in anteroposterior view. The peroneal flap is easily identified after being infibulated into tibial stumps.
Clinical Case 1. Postoperative picture. Lateral view of the left leg 1 month after surgery.
Clinical Case 1. Postoperative radiograph (1 mo) of the leg. Anteroposterior radiograph of the tibia, which shows satisfactory bone alignment and healing 1 month after surgery.
Clinical Case 2. Preoperative picture. Medial view of the left leg with exposed fracture of the inferior third of the tibia (Gustilo stage 3c) and loss of skin cover.
Clinical Case 2. Preoperative picture. Lateral view of the left leg with exposed fracture of the inferior third of the tibia (Gustilo stage 3c).
Clinical Case 2. Preoperative radiograph of the traumatized leg after early debridement and immobilization with external fixation. Shown is a double complete fracture of the tibia and fibula at their inferior third with loss of substance (Gustilo stage 3c).
Clinical Case 2. Preoperative drawing. Schematic drawing of the preoperative bone defect and the planned contralateral flap.
Clinical Case 2. Early postoperative radiograph of the operated leg in anteroposterior view. The peroneal flap is easily identified after being infibulated into tibial stumps.
Clinical Case 2. Postoperative picture. Postoperative result in anteroposterior view.
Clinical Case 2. Late postoperative radiograph. Anteroposterior radiograph of the tibia 6 months after surgery, with a satisfactory bone alignment and union.
Clinical Case 2. Postoperative picture. Medial view of postoperative result.
Clinical Case 2. Preoperative picture. Frontal view of the right leg with a wide defect of the superior third of the tibia resulting from segmental exposed fracture (Gustilo stage 3c).
Clinical Case 3. Preoperative radiograph of the traumatized leg after early debridement and immobilization with external and internal synthesis. A displaced spiral fracture of the superior third of the tibia with loss of bone tissue is evident (Gustilo stage 3c).
Clinical Case 3. Preoperative drawing. Schematic drawing of the preoperative bone defect and the planned contralateral flap.
Clinical Case 3. Preoperative view of the left donor leg with schematic drawing of the osteocutaneous peroneal flap.
Clinical Case 3. Intraoperative picture of the flap. Intraoperative view of the harvested peroneal osteocutaneous flap.
Clinical Case 3. Postoperative drawing. Schematic drawing of the desired postoperative outcome at the recipient and donor areas.
Clinical Case 3. Postoperative radiograph of the operated leg in anteroposterior view. The peroneal flap is easily identified after being infibulated into tibial stumps.
Clinical Case 3. Anteroposterior radiograph of the tibia 6 months after surgery, with a satisfactory bone alignment and union.
Clinical Case 3. Postoperative result in anteroposterior view with the leg bearing full body weight.
Clinical Case 4. Osteomyelitis of the middle third of the tibial shaft. Shown is a long-standing osteocutaneous fistula secreting pus.
Clinical Case 4. Preoperative planning. Drawing of a right rectus abdominis muscle flap based on the inferior epigastric pedicle.
Clinical Case 4. Intraoperative picture. The right rectus abdominis flap isolated on its vascular pedicle.
Clinical Case 4. Postoperative result. Oblique view of the perfectly healed rectus abdominis muscle flap transferred in place and covered by a meshed split-thickness skin graft.
Fracture of the tibial plate and fibular head.
Early postoperative radiograph after fixation of the tibial fractures with a plate.
Infection and exposure of the plate through the surgical access site.
Posterior approach to the lateral head of the gastrocnemius.
The lateral head of the gastrocnemius is dissected and pedunculated proximally on the lateral sural artery. The soleus muscle is visible at the donor site.
The lateral head of the gastrocnemius is transferred anteriorly, by lateral rotation under the skin, to cover the plate and the fracture lines.
Meshed split-thickness skin graft is applied to the exposed row surface of the gastrocnemius.
Drawing of the reverse sural fasciocutaneous flap, vascularized from distal peroneal perforators.
Skin marking of a large reverse sural flap.
Incision is carried out through the skin down to the muscle fascia, to include the fascia of the leg into the flap.
Frontal view of large scarred area of the leg undergoing frequent breakdowns, with possible malignant transformation.
Medial view of the scarred area of the leg.
Lateral view of the scarred area of the leg. Perforators from the peroneal artery are identified along the lateral septum of the leg with the aid of a superficial Doppler probe.
Frontal view of postoperative results of the scarred area replaced by the reverse sural fasciocutaneous flap.
Postoperative medial view showing the proximal tip of the flap.
Postoperative lateral view showing the distal narrow pedicle of the flap.
Donor area of the reverse sural flap repaired with a meshed split-thickness skin graft.
 
 
 
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