Fibula Tissue Transfer

Continuing Education Activity

Fibular grafts are used for no of indicqation e.g. mandibular defects, LLD, pseduarthrosis etc. Graft is harvested through either postrolateral or lateral approach preserving dista end of fibula whic sports ankle joint. This activity reviews the evaluation and treatment of Fibular free graft and highlights the role of the interprofessional team in evaluating and treating this condition.


  • Identify the indications for Fibula tissue transfer which are Large posttraumatic skeletal defects (> 6 cm in both upper or lower limbs), Significant bone stock lacking after bone tumoral resections Pseudarthrosis of the long bones Leg length discrepancy Mandibular defects reconstruction Chronic osteomyelitis (when other options failed) Vascularized epiphyseal transfer,and Cortical Bone graft
  • Summarize the treatment considerations for patients with bone defects. well informed consent, treatment protocols and followup should be discussed with the patient. Recepient and donor site is prepared and both sites require different treatment and assessment protocols.He/she should be well aware of outcomes and functional rcovery.
  • Review the preoperative vascular status assessment in a patient who is going to undergo a free fibular transfer.Dorsalis pedis artery, posterior tibial artery should be assessed. If needed/ doubtful go for doppler scan and angiogram. In case f vascularized graft, survival depends upon feeding vessel. It is worth mentioning that Post-anastomosis lower limb vascular supply should be adequate.
  • Outline the possible complications of fibular tissue transfer which are Bleeding A discrepancy of the graft if not previously properly planned, Iatrogenic bone fracture, Damage to the neurovascular bundle, LLD (leg length discrepancy) Valgus malalignment, Equinus deformity of the ankle, Graft fracture was the most common complication, Infection (is the second most common complication, Great-toe contracture, and possibly amputation


Bone grafts have been the backbone of reconstruction of bony defects for more than a century.[1] The first description of a free fibular graft transport was made by Taylor et al in 1975.[2] Posteriorly, a lateral dissection approach to the free fibula was published by Gilbert, followed by Chuang et al who described fibula transport with a skin paddle for forearm reconstruction by using functioning muscle (lateral half of the soleus).[3][4]

Several reconstructive procedures have been proposed for a variety of procedures e.g Nonvascularized cancellous and cortical autografts, cadaveric bone allografts, endoprosthesis replacement, bone transport procedures, as well as vascularized bone grafts such as iliac crest, rib, and fibula graft have been attempted.[5][6] Free vascularized fibular graft (FVFG) is widely utilized for covering skeletal defects larger than 6 cm due to the long cylindrical straight shape, mechanical strength, predictable vascular pedicle, and hypertrophy potential that enhance a proper bone remodeling.[7]

Nowadays, the fibular graft is being utilized to treat large bone stock deficit after tumor surgery, as pseudarthrosis rescue procedure, mandibular defects reconstruction, and chronic osteomyelitis management. The vascularized epiphyseal transfer is being used for skeletally immature patients with complex injuries in order to preserve the ongoing longitudinal growth allowing a reliable articular surface for effective joint function.[8]

Anatomy and Physiology

The fibula is a long bone situated in the lower extremity that is adhered to the tibia through the interosseous membrane. This connection configures a syndesmotic joint with very restricted mobility.[9]

The Fibula is Composed of Three Parts

  • Head
  • Neck
  • Shaft
  • Distal end of the fibula

 The Fibula has Three Surfaces

  • Lateral
  • Medial
  • Posterior

The shape of the fibular shaft is determined by the muscle attachments. The distal end of the fibula constitutes the lateral malleolus which articulates with the lateral talus, creating part of the lateral ankle. The mean fibula length is 387.4 ± 23.7 mm in male patients and 361.5 ± 12.3 mm in female patients.

The ossification of the fibula takes place in three areas, in the middle and at either end of the epiphysis. The process of ossification ends in the second decade of life. The common peroneal nerve turns around the neck of the fibula which is clinically important to assess in fracture Neck of the fibula.

The blood supply of the fibula is very important as it helps to move vascularized fibula flaps. Long bones comprise of three blood supplies e.g endosteal nutrient vessels (NV), penetrating periosteal vessels (PPV) typical of the metaphysis and epiphysis, and nonpenetrating periosteal vessels (NPPV) typical of the diaphysis.[10] Blood supply comes from there major vessels anterior tibial, peroneal, and posterior tibial artery but the dominant artery giving dorsalis pedis artery needs to confirm before any surgical intervention. If the dominant artery is the peroneal, then any Free fibular flaps are usually contraindicated as it may lead to gangrenous foot.[11]

Joints and Supporting Structures

1. Proximal Tibiofibular Joint

The synovial joint between the head of the fibula and lateral condyle of the tibia is supported by a joint capsule, Anterior and posterior superior tibiofibular ligaments, lateral collateral ligament, and biceps femoris supplied by the fibular nerve.

2. Distal Tibiofibular Joint

The fibrous joint between the fibular notch and distal tibia supported by an interosseous membrane, Anterior, and posterior inferior tibiofibular ligaments, and Inferior transverse tibiofibular ligament supplied by deep peroneal and tibial nerves.


 Fibular tissue grafts/flaps are used in the following scenarios: 

  1. Large posttraumatic skeletal defects (> 6 cm in both upper or lower limbs)
  2. Significant bone stock lacking after bone tumoral resections
  3. Pseudarthrosis of the long bones (resection & fibula graft)
  4. Leg length discrepancy 
  5. Mandibular defects reconstruction[12]
  6. Chronic osteomyelitis (when other options failed)
  7. Vascularized epiphyseal transfer (being used for skeletally immature patients to maintain longitudinal growth pattern)[13]
  8. Cortical Bone graft (osteoconductive and osteoinductive for nonunion)
  9. Grafts for osteonecrosis of the head of humerus/femur[14]

Choosing the surgical technique is a complex decision to be taken by a multidisciplinary team as well as the patient's decision. A plethora of options is available for the treatment in different case scenarios of bone defects. The literature reveals mixed results and no final consensus in which method to use when approaching a large bone defect, however, the vast majority of the evidence supports the fibular graft as an excellent treatment option with few postoperative complications and positive symptom relief.


Fibular grafts are contraindicated in the following scenarios as potential complications may arise after the fibular transfer:

  1. history of peripheral vascular disease involving the upper or lower extremities
  2. a hypoplastic anterior tibial artery
  3. small skin pedicle in case of using vascularized flaps
  4. Venous insufficiency (is a contraindication due to the potential for donor site complications)
  5. Recurrent infection (for non vascularized fibular graft)


The following equipment is needed:

  • Regular operating table
  • Skin marker
  • Surgical blade with a scalpel
  • PVP-iodine/chlorhexidine     
  • Langenbach retractors
  • Periosteum elevator
  • Plain and tooth forceps
  • Bone cutter & bone saw
  • Bone finer
  • Bulldog clamps (if the vascularized graft is required)
  • Plates, screws & Intramedullary Rod
  • Drill & drill bit
  • Screwdriver
  • Suction drain bottle
  • Vicryl and prolene sutures
  • Dressing


Expertise from the following personnel are needed:

  • Anesthetist
  • Primary Surgeon
  • 1 or 2 surgical assistants (2-team surgeons allows a faster operative time)
  • Operating room assistant
  • Staff nurse
  • Cleaner


Informed consent, check skin condition & vascular status of the donor site and recipient site are in the preoperative period. A preoperative angiography/doppler ultrasound is required to analyze the dominant vessel, in case that the peroneal artery is the dominant one, then a vascularized graft is contraindicated.

The procedure is performed under general anesthesia and antibiotic prophylactic is given at the induction with a repeated dose every 4 hours during the surgery. The donor and recipient sites are prepared with aseptic measures for surgical intervention. An Esmarch bandage is used to exsanguinate the lower extremity and a tourniquet is applied.  The patient is positioned in the supine/lateral decubitus position with a sterile tourniquet on the affected limb set to 150mm Hg above the mean arterial pressure. All pressures points are carefully padded e.g. contralateral fibular head (to protect the peroneal nerve), pelvis, heel, and contralateral axilla (to protect the brachial plexus). Usually, the surgery is performed by 2-team surgeons at the same time: the first team works on the recipient site while the other is approaching the donor site.[15]


Both recipient and donor sites can be approached simultaneously by two microsurgical teams to diminish operative time, bleeding, and related complications.

Recipient Site Surgery

The recipient site of the surgery depends on the etiology factor and site of the bone defect. For example, chronic tibial shaft osteomyelitis with a wide bone resection needed for curative purposes, large posttraumatic skeletal defects, or a cubital atrophic pseudarthrosis with a significant lack of bone stock. Proximally and distally, the periosteum is usually preserved in order to aid for future fusion. The length of the defect is measured preoperatively with Xrays or CT scan when appropriate, and the final length is measured intraoperatively after the bone resection of the recipient site.[16] 

Donor site Surgery

The harvesting of the fibular graft is performed through an anterolateral approach as described by Gilbert.[3] The interval between the peroneus longus and the soleus is developed and dissection is done deep to the fibula protecting the superficial peroneal nerve anteriorly. Bony cuts are made according to the measured reconstruction length, taking care, and protecting the peroneal vessels which are located just beyond the proximal cut. By carefully dissecting the flexor hallucis longus, the fibula is retracted anteriorly. Towel clamps are applied at the ends of the fibula and rotated gently outward. If a vascularized graft is required, the peroneal vessels are lifted together with the fibula.[17] In closing the donor, the flexor hallucis longus is sutured to the interosseous membrane and the peroneus longus is sutured to the soleus. Skin is closed primarily except in the area of the cutaneous paddle, which is typically covered with a split-thickness skin graft

Graft Placement

The surface contact area of the fibula into the recipient site can be increased by using a double barrel technique in case of femoral or tibial defects. The bone segment is trimmed according to the recipient site and fixed into the bone defect with appropriate fixation. This is generally accomplished with small plates and screw constructs, rush rods, or K-wires. In the case of performing a vascularized fibular graft transfer, vascular anastomosis is preferred utilizing nylon 8 or 9/0. The incorporation of a skin flap, supplied by the peroneal artery, is not only for composite reconstruction of bone and soft-tissue defects of the extremities, but also serves as postoperative monitoring of the viability of the fibular graft. Distal tibial fibula fusion is usually performed as suggested by Langenskio¨ld procedure to prevent valgus deformity of the ankle.[7]

In cases of bone defects associated with soft tissue involvement such as tumoral resections or large posttraumatic skeletal defects, the fibular graft is usually harvested together with a skin paddle and is used as an osteocutaneous flap at the same stage, accomplishing then bone, soft tissue, and skin coverage simultaneously. 

Postoperative Care

Patients should be placed on low-molecular-weight heparin for deep venous thrombosis prophylaxis and aspirin for 2 weeks. In the case of using osteocutaneous grafts, the flaps are monitored by visual inspection of the cutaneous paddle and by ultrasound doppler. In cases in which a skin graft is required for covering the donor site, the patient wears a posterior splint and should remain non-weight-bearing for at least 48 to 72 hours after surgery. After this, wears a walker boot to avoid ankle plantar or dorsiflexion, therefore preventing dislodging of an immature skin graft from the leg. The patient is then allowed to weight-bearing progressively as tolerated. 


 Anesthesia-related Complication

These are usually the side effects of anesthesia medication and procedures.

  • Pain
  • Nausea and vomiting
  • Damage to teeth
  • Sore throat and laryngeal damage
  • Anaphylaxis to anesthetic agents
  • Cardiovascular collapse
  • Respiratory depression
  • Aspiration pneumonitis
  • Hypothermia

Intra-operative Complications

During surgery, different complications may occur.

  • Bleeding
  • A discrepancy of the graft if not previously properly planned
  • Iatrogenic bone fracture
  • Damage to the neurovascular bundle

Post-operative Complications

  • Hematoma
  • Pin migration
  • LLD (leg length discrepancy)
  • Valgus malalignment
  • Equinus deformity of the ankle[18]
  • Graft fracture was the most common complication
  • Infection (is the second most common complication[14]
  • Great-toe contracture, flexion contracture of the great toe is the most frequent complication after fibular graft harvest. (Flexor hallucis longus lengthening might be needed to correct this contracture)
  • Motor weakness at the early follow-up visits appeared to be largely attributable to pain inhibition[19]
  • Peroneal nerve palsy
  • Low hematocrit or hemoglobin levels requiring transfusion in the immediate postoperative period[20]
  • Delayed nonunion
  • Growth deformities due to physeal abnormalities or asymmetrical growing[15]
  • Inadequate soft-tissue coverage (might need soft tissue flaps)
  • Early postoperative wound dehiscence
  • Amputation due to failed treatment of the initial source of bone defect or failure of grafting union[21]
  • Thrombosis of the anastomosed vessels, stress fracture, and variable donor-site morbidity, including sensory abnormalities, motor weakness, and ankle pain[7]

Clinical Significance

An autogenous vascularized/non-vascularized fibular graft is used frequently and for many major reconstructive purposes as it provides structural stability and reliable vascular supply. The fibular graft is versatile and advantageous compared to other graft, and this has been well documented in the literature. Bone lengthening by the Ilizarov technique is time-consuming and has much morbidity. Non-union is a frequent complication of posttraumatic open fractures, osteomyelitis, and also in post tumoral bone resections. Fibular grafts not only allow to cover mechanical and structural defects but also have a high capability of enhancing bone remodeling and provides an adequate blood supply to overcome bony infections. The fibular head is also being used in distal radius and lateral malleolus reconstruction. Another method of fibula transfer is the medicalization of fibula in large tibial defects, providing promising outcomes.[22]

Complications always follow surgical procedures and this reconstructive procedure also has limitations and complications. The advantages of these procedures outweigh the side effects. This novel idea has decreased the amputation rates, morbidity, and mortality of patients.

Enhancing Healthcare Team Outcomes

Preoperative and postoperative patient care is crucial in order to improve the outcomes of a free fibular graft transfer. General practitioners, nurses, and pharmacists should advise the patient to change lifestyle, such as weight control and stop smoking. Making referrals to other professionals is important when concomitant and associated pathologies could be present.

Patients are usually followed by the primary care provider, nurse practitioner, and physiotherapist. This procedure has shown promising long term results. Orthopedic surgeons, radiology technicians, and nursing staff together form an interprofessional team for accurate deployment and post-procedural clinical monitoring. On each follow-up patient’s subjective complaints and objects, findings are noted and addressed properly. As a team workload is not only divided but efficiently carried out minimizing human error.

Complete comprehensive preoperative planning should be assessed. It is important to carefully document neurological status before surgery and develop correct and complete operative consent describing the magnitude, scope, and detailed complications of the surgery, as well as detailed alternatives considering nonoperative management. 

Even when the benefits of bone reconstruction vs conservative management vs amputation for the treatment of large bone defects has not been proved, fibular bone graft transfer remains an effective surgical technique for the treatment of large skeletal bone defects in pathologies such as tumors, posttraumatic bone defects, pseudoarthrosis, and long bone length discrepancy. [Level 1]

Nursing, Allied Health, and Interprofessional Team Interventions

Nurse postoperative care should include finite management of intravenous fluids, foley catheter care until ambulating, antibiotics, pain control, wound, and dressing care, and an advanced diet when appropriate.

Nursing, Allied Health, and Interprofessional Team Monitoring

Postoperative patient monitoring is important for recognizing some early complications, especially the failure of vascular anastomosis in the case of vascularized grafts, it is important to evaluate the wound looking for some suggestive signs such as skin color changes, or lack of doppler sounds while monitoring the skin paddle at the recipient site. In addition, clinical signs such as hypotension, dizziness, excessive pain not possible to manage it with proper analgesia, or fever, should raise alert from a possible complication.

Article Details

Article Author

Muhammad Taqi

Article Editor:

Martin Estefan


1/2/2021 1:24:27 PM

PubMed Link:

Fibula Tissue Transfer



Wagels M,Rowe D,Senewiratne S,Theile DR, History of lower limb reconstruction after trauma. ANZ journal of surgery. 2013 May;     [PubMed PMID: 22989362]


Taylor GI,Miller GD,Ham FJ, The free vascularized bone graft. A clinical extension of microvascular techniques. Plastic and reconstructive surgery. 1975 May;     [PubMed PMID: 1096183]


Chuang DC,Chen HC,Wei FC,Noordhoff MS, Compound functioning free muscle flap transplantation (lateral half of soleus, fibula, and skin flap). Plastic and reconstructive surgery. 1992 Feb;     [PubMed PMID: 1732905]


Bumbasirevic M,Stevanovic M,Bumbasirevic V,Lesic A,Atkinson HD, Free vascularised fibular grafts in orthopaedics. International orthopaedics. 2014 Jun;     [PubMed PMID: 24562850]


Toy PC,White JR,Scarborough MT,Enneking WF,Gibbs CP, Distal femoral osteoarticular allografts: long-term survival, but frequent complications. Clinical orthopaedics and related research. 2010 Nov;     [PubMed PMID: 20645036]


Gubin AV,Borzunov DY,Malkova TA, The Ilizarov paradigm: thirty years with the Ilizarov method, current concerns and future research. International orthopaedics. 2013 Aug;     [PubMed PMID: 23712212]


Beris AE,Lykissas MG,Korompilias AV,Vekris MD,Mitsionis GI,Malizos KN,Soucacos PN, Vascularized fibula transfer for lower limb reconstruction. Microsurgery. 2011 Mar;     [PubMed PMID: 21360586]


Erdmann D,Garcia RM,Blueschke G,Brigman BE,Levin LS, Vascularized fibula-based physis transfer for pediatric proximal humerus reconstruction. Plastic and reconstructive surgery. 2013 Aug;     [PubMed PMID: 23897356]


Garrett A,Geiger Z, Anatomy, Bony Pelvis and Lower Limb, Superficial Peroneal (Fibular) Nerve 2020 Jan;     [PubMed PMID: 30521214]


Sparks DS,Saleh DB,Rozen WM,Hutmacher DW,Schuetz MA,Wagels M, Vascularised bone transfer: History, blood supply and contemporary problems. Journal of plastic, reconstructive     [PubMed PMID: 27843061]


Golas AR,Levine JP,Ream J,Rodriguez ED, Aberrant Lower Extremity Arterial Anatomy in Microvascular Free Fibula Flap Candidates: Management Algorithm and Case Presentations. The Journal of craniofacial surgery. 2016 Nov;     [PubMed PMID: 28005769]


Pellini R,Mercante G,Spriano G, Step-by-step mandibular reconstruction with free fibula flap modelling. Acta otorhinolaryngologica Italica : organo ufficiale della Societa italiana di otorinolaringologia e chirurgia cervico-facciale. 2012 Dec;     [PubMed PMID: 23349561]


Morsy M,Sur YJ,Akdag O,Sabbagh MD,Suchyta MA,El-Gammal TA,Lachman N,Moran SL, Vascularity of the Proximal Fibula and Its Implications in Vascularized Epiphyseal Transfer: An Anatomical and High-Resolution Computed Tomographic Angiography Study. Plastic and reconstructive surgery. 2019 Jan;     [PubMed PMID: 30589807]


Rose PS,Shin AY,Bishop AT,Moran SL,Sim FH, Vascularized free fibula transfer for oncologic reconstruction of the humerus. Clinical orthopaedics and related research. 2005 Sep;     [PubMed PMID: 16131873]


Bauer AS,Singh AK,Amanatullah D,Lerman J,James MA, Free vascularized fibular transfer with langenskiöld procedure for the treatment of congenital pseudarthrosis of the forearm. Techniques in hand     [PubMed PMID: 23970196]


Steinlechner CW,Mkandawire NC, Non-vascularised fibular transfer in the management of defects of long bones after sequestrectomy in children. The Journal of bone and joint surgery. British volume. 2005 Sep;     [PubMed PMID: 16129754]


Chhabra AB,Golish SR,Pannunzio ME,Butler TE Jr,Bolano LE,Pederson WC, Treatment of chronic nonunions of the humerus with free vascularized fibula transfer: a report of thirteen cases. Journal of reconstructive microsurgery. 2009 Feb;     [PubMed PMID: 18925551]


Vigouroux F,Mezzadri G,Parot R,Gazarian A,Pannier S,Chotel F, Vascularised fibula or induced membrane to treat congenital pseudarthrosis of the Tibia: A multicentre study of 18 patients with a mean 9.5-year follow-up. Orthopaedics     [PubMed PMID: 28559144]


Gaskill TR,Urbaniak JR,Aldridge JM 3rd, Free vascularized fibular transfer for femoral head osteonecrosis: donor and graft site morbidity. The Journal of bone and joint surgery. American volume. 2009 Aug;     [PubMed PMID: 19651942]


Shammas RL,Avashia YJ,Farjat AE,Catanzano AA,Levin LS,Eward WC,Brigman BE,Erdmann D, Vascularized Fibula-Based Physis Transfer: A Follow-Up Study of Longitudinal Bone Growth and Complications. Plastic and reconstructive surgery. Global open. 2017 May;     [PubMed PMID: 28607872]


Pannunzio ME,Chhabra AB,Golish SR,Brown MR,Pederson WC, Free fibula transfer in the treatment of difficult distal tibia fractures. Journal of reconstructive microsurgery. 2007 Jan;     [PubMed PMID: 17230315]


Meselhy MA,Singer MS,Halawa AM,Hosny GA,Adawy AH,Essawy OM, Gradual fibular transfer by ilizarov external fixator in post-traumatic and post-infection large tibial bone defects. Archives of orthopaedic and trauma surgery. 2018 May;     [PubMed PMID: 29417207]