Diabetic Peripheral Neuropathy Type 2

This study will examine how two types of exercise programs affect nerve health in people with diabetic peripheral neuropathy. Diabetic peripheral neuropathy is a common complication of type 2 diabetes that can cause numbness, pain, balance problems, and reduced quality of life. Exercise is often recommended for people with diabetes, but it is not yet clear which types of exercise are most effective for improving nerve function. In this randomized controlled trial, participants with type 2 diabetes and confirmed peripheral neuropathy will be assigned to one of three groups. One group will perform a combined program of aerobic and resistance exercises (concurrent training). Another group will perform soleus push-up exercises, a seated ankle movement designed to activate the soleus muscle and improve glucose metabolism. The third group will continue with standard diabetes care and general lifestyle advice without a structured exercise program. The study will evaluate whether these exercise interventions influence biological markers related to nerve repair and neuroplasticity, including brain-derived neurotrophic factor (BDNF), nerve growth factor (NGF), and the Schwann cell marker S100B. In addition, the study will assess changes in neuropathy symptoms, balance and postural stability, blood sugar control, and quality of life. Participants will complete assessments before the intervention and again during follow-up after the exercise program. The findings of this study may help identify effective and feasible exercise strategies to support nerve health, improve physical function, and reduce the impact of diabetic peripheral neuropathy.

In this study the effects of diabetic peripheral neuropathy will be assessed on balance control, balance recovery, and muscle electrical activity in adults over 50 years. Aim 1: Determine muscle activity and balance control during a sit-to-stand in adults age above 50 with and without diabetic peripheral neuropathy. Aim 2: Assess local balance recovery and latency responses to lateral surface perturbation during quiet standing.