The effectiveness of electroneuromyography in the early diagnosis of diabetic foot development

Year 2021, Volume: 4 Issue: 2, 213 - 218, 28.03.2021

Fatma Kesmez Can , Nuray Bilge , Handan Alay , Mehmet Parlak

https://doi.org/10.32322/jhsm.856117

Abstract

Objective: Diabetic foot is one of the first cause of lower extremity amputation. The aim of this study is to determine which of the nerve conduction disorders may be used predominantly for early diagnosis of diabetic foot development in the follow-up of diabetic patients.
Material and Method: The study consists of 3 different groups (150) of patients diagnosed with type 2 diabetes (DM). 1. Group; 50 patients with diabetic foot complications (DA+), 2. Group; 50 patients without diabetic foot complications and with polyneuropathy (DA-/PNP+), 3. Group; 50 patients without diabetic foot complications and without polyneuropathy (DA-/PNP-). Diabetic foot wounds were grouped by pedis classification.
Findings: Age, sex, diabetes duration, blood glucose, HbA1c values and electroneuromyography (ENMG) for nerve amplitude, velocity and latancy results were compared among the groups. A significant statistical difference was found between three groups when age, sex, HgbA1c, fasting blood glucose, diabetes duration were evaluated (p<0.05). All DA+ patients had PNP+. In the DA+ group, unlike DA-/PNP+ group, the motor nerves of the lower extremities were also involved. Tibial nerve velocity was lower than normal in DA+ patients and normal in other groups (p<0.05). A statistically significant difference was found in peroneal nerve conduction velocity between the DA+ group and the DA- groups (p<0.05). Peroneal nerve conduction velocity was not statistically significant between DA-/PNP+ and DA-/PNP- groups (p>0.05). Peroneal nerve conduction velocity was lowest in the DA+ group. This factor was considered as a risk factor for DA development.
Conclusions: In conclusion, the slowdown in peroneal nerve conduction velocity and the increase in diabetes duration were the primary risk factors for diabetic foot development, and the decrease in tibial nerve velocity was also considered as significant. This study showed that the involvement of motor nerve conduction in the lower extremity was considered as a signal for diabetic foot development.

Keywords

Diabetic foot, Polyneuropathy, ENMG

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