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The Bone & Joint Journal
Vol. 100-B, Issue 4 | Pages 646 - 651
1 Apr 2018
Attias N Thabet AM Prabhakar G Dollahite JA Gehlert RJ DeCoster TA

Aims. This study reviews the use of a titanium mesh cage (TMC) as an adjunct to intramedullary nail or plate reconstruction of an extra-articular segmental long bone defect. Patients and Methods. A total of 17 patients (aged 17 to 61 years) treated for a segmental long bone defect by nail or plate fixation and an adjunctive TMC were included. The bone defects treated were in the tibia (nine), femur (six), radius (one), and humerus (one). The mean length of the segmental bone defect was 8.4 cm (2.2 to 13); the mean length of the titanium mesh cage was 8.3 cm (2.6 to 13). The clinical and radiological records of the patients were analyzed retrospectively. Results. The mean time to follow-up was 55 months (12 to 126). Overall, 16 (94%) of the patients achieved radiological filling of their bony defect and united to the native bone ends proximally and distally, resulting in a functioning limb. Complications included device failure in two patients (12%), infection in two (12%), and wound dehiscence in one (6%). Four patients (24%) required secondary surgery, four (24%) had a residual limb-length discrepancy, and one (6%) had a residual angular limb deformity. Conclusion. A titanium mesh cage is a useful adjunct in the treatment of an extra-articular segmental defect in a long bone. Cite this article: Bone Joint J 2018;100-B:646–51


Orthopaedic Proceedings
Vol. 100-B, Issue SUPP_8 | Pages 16 - 16
1 May 2018
Moore D Noonan M Kelly P Moore D
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Purpose. Angular deformity in the lower extremities can result in pain, gait disturbance, cosmetic deformity and joint degeneration. Up until the introduction of guided growth in 2007, which has since become the gold standard, treatment for correcting angular deformities in skeletally immature patients had been either an osteotomy, a hemiepiphysiodesis, or the use of staples. Methods. We reviewed the surgical records and diagnostic imaging in our childrens hospital to identify all patients who had guided growth surgery since 2007. All patients were followed until skeletal maturity or until their metalwork was removed. Results. 113 patients, with 147 legs were assessed for eligibility. Three were excluded for various reasons including inadequate follow-up or loss of records. Of the 144 treated legs which met the criteria for final assessment 32 (22.2%) were unsuccessful, the other 112 (77.8%) were deemed successful at final follow up. Complications were few, but included infection in one case and metal failure in another. Those with a pre-treatment diagnosis of idiopathic genu valgum/genu varum had a success rate of 83.6%. Conclusions. In our hands, guided growth had a seventy-eight percent success rate when all diagnosis were considered. Those procedures that were unlikely to be successful included growth disturbances due to mucopolysaccharide storage disease (28% failure rate), Blounts disease (66.6% failure rate) and achondroplasia (37.5% failure rate). If you exclude those three diagnoses, success rate for all other conditions was 81.4%. We continue to advocate the use of guided growth as a successful treatment option for skeletally immature patients with limb deformity


Orthopaedic Proceedings
Vol. 99-B, Issue SUPP_13 | Pages 18 - 18
1 Jun 2017
Ferguson J Nagarajah K Stubbs D McNally M
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Aims. To investigate a treatment algorithm of various Ilizarov methods in managing infected tibial non-union. Patients and Methods. A consecutive series of 76 patients with infected tibial non-union were treated with one of four Ilizarov protocols, consisting of; monofocal distraction (25 cases), monofocal compression (18), bifocal compression/distraction (16) and bone transport (17). Median duration of non-union was 10.5 months (range 2–546 months). All patients underwent at least one previous operation, 36 had associated limb deformity and 49 had non-viable non-unions. Twenty-six cases had a new muscle flap at the time of Ilizarov surgery and 24 others had pre-existing flaps. Results. Infection was eradicated in 74 cases (96.1%) at a mean follow-up of 42 months (range 8–131). Both infection recurrences were in the monofocal compression group. Union was achieved in 66 cases (86.8%) with the initial Ilizarov method alone. Union was highest amongst the monofocal distraction and bifocal compression/distraction groups, 96% and 93.8% respectively. Monofocal compression was successful in only 77.8% of mobile non-unions. Bone transport secured initial union in 76.5% with a 47% unplanned reoperation rate. However, following further treatment union was 100% in the bone transport group compared to 88.9% in the monofocal compression group. Six cases sustained a refracture, with 5/6 occurring in the monofocal compression group, representing a 27.7% refracture rate. ASAMI scores were also significantly lower for the monofocal compression group. Conclusion. We do not recommend monofocal compression in the treatment of infected, mobile non-unions. Distraction (monofocal or bifocal) was more effective achieving higher rates of infection clearance, lower refracture rates and better ASAMI scores