Insulin Resistance and its Relation to Kidney Function and the Impact on Age and Gender
Keywords:
Insulin, Phosphofructokinase (PFK), Sodium, Potassium, Calcium, Magnesium, Type 1 Diabetes, Type 2 Diabetes, Autonomic Neuropathy.Abstract
In this comprehensive study, we delve into the pivotal role of insulin in regulating various metabolic processes, including glucose, lipid, protein, and mineral metabolism. Insulin resistance emerges as a central theme, characterized by a reduced responsiveness of key organs like the liver, skeletal muscles, and adipose tissue to insulin. This condition manifests in two primary forms: hepatic and peripheral. Hepatic insulin resistance is marked by an inadequacy in suppressing hepatic glucose production, whereas peripheral insulin resistance involves a diminished capacity for glucose utilization in skeletal muscles and adipose tissues.
A noteworthy aspect of our research highlights the altered electrolyte balances in individuals with type 1 diabetes, notably the diminished levels of potassium and magnesium, coupled with elevated calcium levels prior to therapeutic intervention. Particularly striking is the significant reduction in magnesium levels in patients with diabetes-induced autonomic neuropathy.
Further, our study draws attention to the differential impacts of type 1 and type 2 diabetes on enzymatic and electrolyte profiles. We observed elevated insulin levels in female patients with type 1 diabetes compared to those with type 2. Additionally, there was a notable reduction in phosphofructokinase (PFK) enzyme levels in type 2 diabetes patients relative to both type 1 diabetic individuals and the non-diabetic control group.
The investigation also uncovers a significant reduction in potassium and magnesium levels in type 1 diabetic patients prior to treatment initiation. Concurrently, we observed an increase in the levels of calcium and sodium. Moreover, our findings reveal a substantial decline in magnesium concentration in patients suffering from diabetic autonomic neuropathy, which can be attributed to oxidative stress and the presence of reactive oxygen species (ROS).
These findings underscore the profound alterations diabetes can induce in electrolyte and enzyme profiles, underscoring the critical need for targeted therapeutic strategies to manage these biochemical imbalances.
