A woman undergoes a mammogram test for cancer screening. This is an example of:

Choice A Reason:

Discontinuing the drug at the first signs of toxicity might seem like a straightforward solution, but it is not always the best approach. Some drugs are essential for treating serious conditions, and stopping them abruptly can cause more harm than good. Instead, the nurse should monitor the patient closely and consult with the healthcare provider to adjust the dosage or switch to a safer alternative if necessary.

Choice B Reason:

Teaching the patient how to treat symptoms if they develop is important, but it is not sufficient on its own. While patient education is a crucial aspect of managing drug side effects, it should be part of a broader strategy that includes regular monitoring and medical supervision.

Choice C Reason:

Ensuring that complete blood counts are ordered periodically is a good practice, especially for drugs that can affect blood cells. However, this approach is too narrow. Toxic side effects can impact various organs and systems, so a comprehensive monitoring plan is necessary.

Choice D Reason:

This is the correct answer. Monitoring the function of all organs potentially affected by the drug is the most comprehensive and effective approach. This includes regular blood tests, liver function tests, kidney function tests, and other relevant assessments. By closely monitoring the patient’s organ functions, the healthcare team can detect early signs of toxicity and take appropriate action to prevent serious complications.

Choice A Reason:

Respiratory alkalosis occurs when a person breathes rapidly (hyperventilates), causing a decrease in carbon dioxide (CO2) levels in the blood. This reduction in CO2 leads to an increase in blood pH, resulting in alkalosis. Hyperventilation can be triggered by anxiety, fever, or other conditions that increase respiratory rate.

Choice B Reason:

Metabolic alkalosis is caused by an increase in bicarbonate (HCO3-) or a loss of hydrogen ions (H+), often due to vomiting, diuretic use, or excessive bicarbonate intake. It is not directly related to hyperventilation, which primarily affects CO2 levels rather than bicarbonate levels.

Choice C Reason:

Metabolic acidosis occurs when there is an excess of acid in the body or a loss of bicarbonate, often due to conditions like diabetic ketoacidosis, renal failure, or severe diarrhea. Hyperventilation does not cause metabolic acidosis; instead, it can be a compensatory response to metabolic acidosis to help lower CO2 levels and increase pH.

Choice D Reason:

Respiratory acidosis is caused by hypoventilation, where there is inadequate removal of CO2 from the body, leading to an increase in CO2 levels and a decrease in blood pH. This condition is the opposite of what occurs during hyperventilation, making this choice incorrect.