Using an algorithm to interpret arterial blood gases
Bridget Shoulders-Odom
Abstract
Bridget Shoulders-Odom
Abstract
The arterial blood gas (ABG) analysis, one of the most common tests ordered, provides clinicians with valuable information on a patient's oxygenation and acid-base balance. Interpreting ABG analysis results can be challenging, even for the most experienced practitioners, because it requires knowledge of the physiology and cause-and-effect relationship of the disturbances. Applying the principles and the ABG algorithm described in this article will provide nurses with a systematic way to interpret uncomplicated arterial blood gas results, including primary, mixed, and compensated acidbase disturbances.
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The arterial blood gas (ABG) analysis, one of the most common tests ordered, provides clinicians with valuable information on a patient's oxygenation and acid-base balance. Interpreting ABG analysis results can be challenging, even for the most experienced practitioners, because it requires knowledge of the physiology and cause-and-effect relationship of the disturbances. Applying the principles and the ABG algorithm described in this article will provide nurses with a systematic way to interpret uncomplicated arterial blood gas results, including primary, mixed, and compensated acidbase disturbances.
Key concepts: Arterial blood, Arterial blood gas analysis, Blood gas analysis, Oxygenation, Blood oxygenation, Medicine, Computer science, Intensive care medicine