Patients with an ankle sprain were more likely to have a posteriorly positioned fibula, possibly predisposing them to ankle sprain.

The Taylor Spatial Frame uses a computer program-based six-axis deformity analysis. However, there is often a residual deformity after the initial correction, especially in deformities with a rotational component. This problem can be resolved by recalculating the parameters and inputting all new deformity and mounting parameters. However, this may necessitate repeated x-rays and delay treatment. We believe that error in the mounting parameters is the main reason for most residual deformities. To prevent these problems, we describe a new calculation technique for determining the mounting parameters that uses computed tomography. This technique is especially advantageous for deformities with a rotational component. Using this technique, exact calculation of the mounting parameters is possible and the residual deformity and number of repeated x-rays can be minimized. This new technique is an alternative method to accurately calculating the mounting parameters.

No abstract

Nine feet of eight patients with neurologic foot deformities caused from poliomyelitis, Charcot-Marie-Tooth disease, and traumatic nerve injury were treated with V-osteotomy and the Ilizarov method. A painless and plantigrade foot was obtained in all but one patient. A residual deformity occurred in this case because of the soft-tissue problems during the correction period. No major complication had been encountered by the latest follow-up at a mean of 42 months. The results of the current study indicate that the V-osteotomy and the Ilizarov method, while technically difficult, is an effective method for correcting neurologic foot deformities and obtaining a stable, plantigrade, painless foot, especially when complicated with other lower leg problems (i.e., leg length discrepancy, joint contractures).