What is the significant consequence of metabolic acidosis in uncontrolled diabetes?

What is the significant consequence of metabolic acidosis in uncontrolled diabetes?

• A. Fluid retention
• B. Dehydration
• C. Electrolyte imbalance
• D. Impaired renal function

Answer: (C)

Metabolic acidosis, particularly in the context of uncontrolled diabetes, primarily results in an electrolyte imbalance. This occurs because the accumulation of acids in the body disrupts the normal balance of electrolytes, particularly bicarbonate, potassium, and sodium. When the body is in an acidic state, cells may shift potassium from inside the cells to the extracellular space to help buffer the excess acid, leading to hyperkalemia, or elevated potassium levels. This imbalance can significantly impact cardiac function and muscle contraction, as well as disrupt various metabolic processes. In diabetes, this condition is often exacerbated by the presence of ketosis or ketoacidosis, where ketone bodies accumulate and further contribute to electrolyte disturbances. Therefore, the link between metabolic acidosis and electrolyte imbalances in uncontrolled diabetes highlights the importance of monitoring electrolyte levels in affected patients. Fluid retention does not typically occur as a direct result of metabolic acidosis, while dehydration can arise in diabetic conditions but is more closely related to factors like hyperglycemia and diuresis. Impaired renal function can be a consequence of chronic diabetes or unresolved acidosis but is not the primary outcome directly associated with acute metabolic acidosis in this situation. Thus, the identification of electrolyte imbalance is critical when considering the ramifications of metabolic ac

Metabolic acidosis, particularly in the context of uncontrolled diabetes, primarily results in an electrolyte imbalance. This occurs because the accumulation of acids in the body disrupts the normal balance of electrolytes, particularly bicarbonate, potassium, and sodium. When the body is in an acidic state, cells may shift potassium from inside the cells to the extracellular space to help buffer the excess acid, leading to hyperkalemia, or elevated potassium levels. This imbalance can significantly impact cardiac function and muscle contraction, as well as disrupt various metabolic processes.

In diabetes, this condition is often exacerbated by the presence of ketosis or ketoacidosis, where ketone bodies accumulate and further contribute to electrolyte disturbances. Therefore, the link between metabolic acidosis and electrolyte imbalances in uncontrolled diabetes highlights the importance of monitoring electrolyte levels in affected patients.

Fluid retention does not typically occur as a direct result of metabolic acidosis, while dehydration can arise in diabetic conditions but is more closely related to factors like hyperglycemia and diuresis. Impaired renal function can be a consequence of chronic diabetes or unresolved acidosis but is not the primary outcome directly associated with acute metabolic acidosis in this situation. Thus, the identification of electrolyte imbalance is critical when considering the ramifications of metabolic ac