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This deck focuses on Heart Failure Pulmonary Edema Priority Actions, giving you a quick way to review the definitions, rules, and examples that matter most for Nclexrn.
Study Heart Failure Pulmonary Edema Priority Actions in Nclexrn with focused flashcards that help you recognize the idea, recall the key rule, and apply it in practice-style prompts.
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Which medication class is first-line to rapidly reduce fluid overload in acute pulmonary edema?
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IV loop diuretic (for example, furosemide). Loop diuretics promote rapid fluid excretion from the kidneys, decreasing pulmonary vascular volume and congestion.
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This deck focuses on Heart Failure Pulmonary Edema Priority Actions, giving you a quick way to review the definitions, rules, and examples that matter most for Nclexrn.
Work through these flashcards in short sessions. Try to answer each prompt before flipping the card, then revisit any cards you miss until the explanation feels automatic.
Answer: IV loop diuretic (for example, furosemide). Loop diuretics promote rapid fluid excretion from the kidneys, decreasing pulmonary vascular volume and congestion.
Answer: Improve oxygenation and reduce preload by positive pressure. Positive pressure enhances alveolar recruitment and decreases venous return, alleviating hypoxemia and cardiac strain.
Answer: Jugular venous distention. Jugular venous distention reflects elevated right atrial pressure from backward failure, contrasting with left-sided pulmonary symptoms.
Answer: Reduce preload and afterload to improve pulmonary congestion. Nitrates cause vasodilation, which decreases cardiac workload and facilitates fluid redistribution from the lungs.
Answer: Check potassium level and notify the provider promptly. Ventricular ectopy often stems from hypokalemia induced by diuretics, necessitating prompt evaluation and intervention.
Answer: Blood pressure. Nitroglycerin induces vasodilation that can precipitate hypotension, requiring baseline assessment to ensure safety.
Answer: Assess for worsening fluid overload and notify the provider. Rapid weight gain and edema signal fluid retention, requiring assessment and provider notification to prevent decompensation.
Answer: Apply oxygen immediately and reassess oxygenation. Hypoxemia likely causes the confusion, necessitating immediate oxygen to restore cerebral perfusion and reassessment to evaluate efficacy.
Answer: High Fowler position with legs dependent if tolerated. This position minimizes preload by gravity-assisted venous pooling and eases diaphragmatic excursion for better ventilation.
Answer: Pink, frothy sputum. This symptom results from alveolar fluid mixed with blood, distinguishing it as a hallmark of pulmonary congestion beyond mere fatigue.
Answer: Improved SpO2 and decreased work of breathing. These indicators reflect rapid improvements in gas exchange and respiratory effort following therapeutic interventions.
Answer: Initiate nonrebreather mask, then consider CPAP/BiPAP per order. Nonrebreather delivers higher oxygen concentrations, and positive pressure ventilation reduces preload in refractory hypoxemia.
Answer: Sit upright, apply oxygen, and anticipate IV diuretic therapy. These measures immediately relieve orthopnea and hypoxemia, while diuresis targets underlying fluid overload.
Answer: Hypotension. Nitroglycerin exacerbates low blood pressure, potentially leading to cardiogenic shock in vulnerable patients.
Answer: Prepare for intubation and provide bag-mask ventilation as needed. Loss of airway patency in respiratory failure requires preparation for mechanical ventilation to ensure adequate oxygenation.
Answer: Restrict sodium intake as prescribed. Limiting sodium reduces osmotic fluid retention, helping maintain euvolemia in heart failure patients.
Answer: Place in high Fowler position and apply supplemental oxygen. This intervention reduces venous return to alleviate pulmonary congestion and improves oxygenation to counteract hypoxemia in acute distress.
Answer: Serum potassium. Aggressive diuresis with loop diuretics depletes potassium, heightening the risk for cardiac arrhythmias.
Answer: Decreasing level of consciousness with worsening hypoxemia. Altered consciousness with hypoxemia signifies decompensating respiratory function, demanding immediate advanced airway support.
Answer: Paroxysmal nocturnal dyspnea. This symptom arises from nocturnal fluid redistribution into the lungs, indicating worsening left ventricular function.
Answer: Increased pulmonary capillary hydrostatic pressure from LV failure. Left ventricular dysfunction elevates pressure, forcing fluid into the alveoli and causing edema.
Answer: Assess breath sounds for crackles and measure oxygen saturation. Crackles indicate fluid in the alveoli, while oxygen saturation quantifies the degree of hypoxemia in respiratory compromise.
Answer: Activate rapid response and begin high-flow oxygen support. These signs signal acute decompensation, requiring rapid team intervention and high oxygen to stabilize respiratory status.
Answer: Urine output. Monitoring urine output evaluates the diuretic's effectiveness in reducing fluid overload and pulmonary congestion.
Answer: Daily weights using the same scale and time. Consistent daily weights provide an accurate measure of fluid balance changes, guiding heart failure management.