What this deck covers
This deck focuses on Chest And Abdominal Trauma, giving you a quick way to review the definitions, rules, and examples that matter most for NREMT AEMT Level.
Study Chest And Abdominal Trauma in NREMT AEMT Level with focused flashcards that help you recognize the idea, recall the key rule, and apply it in practice-style prompts.
0% Complete
What is the key distinguishing feature of a tension pneumothorax compared with a simple pneumothorax?
Tap card or press Space to flip
Progressive intrathoracic pressure causing obstructive shock. In tension pneumothorax, air accumulates under pressure, compressing mediastinal structures and impeding venous return, unlike simple pneumothorax.
How well did you know it?
Card 1 / 25
Space to flip · ← / → to move · once flipped, → Got it · ← Still learning
This deck focuses on Chest And Abdominal Trauma, giving you a quick way to review the definitions, rules, and examples that matter most for NREMT AEMT Level.
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: Progressive intrathoracic pressure causing obstructive shock. In tension pneumothorax, air accumulates under pressure, compressing mediastinal structures and impeding venous return, unlike simple pneumothorax.
Answer: Needle decompression. This procedure relieves intrathoracic pressure by allowing trapped air to escape, restoring hemodynamic stability in emergent cases.
Answer: Pulmonary contusion. Blunt force causes capillary damage, leading to edema and impaired gas exchange, progressively worsening oxygenation.
Answer: Hemothorax. Blood accumulation compresses the lung, impairs gas exchange, and can lead to hypovolemic shock if massive.
Answer: Cardiac tamponade. Pericardial blood restricts diastolic filling, reducing stroke volume and cardiac output, leading to shock.
Answer: Obstructive shock. These conditions mechanically obstruct venous return or cardiac output, leading to inadequate perfusion despite normal blood volume.
Answer: Unexplained tachycardia with signs of shock. Tachycardia compensates for hypovolemia early, often preceding hypotension in internal hemorrhage detection.
Answer: Hypotension, JVD, muffled heart sounds. Beck's triad reflects impaired cardiac filling from pericardial pressure, with elevated venous pressure and diminished cardiac sounds.
Answer: Fourth or fifth intercostal space, anterior axillary line. This alternative site reduces the risk of vascular injury while effectively accessing the pleural cavity for pressure relief.
Answer: Small intestine. Its extensive length and intraperitoneal location increase exposure to penetrating projectiles or blades.
Answer: Supplemental oxygen; assist ventilations if inadequate. This approach maintains oxygenation while supporting ventilation to counteract progressive hypoxia from alveolar damage.
Answer: Open chest wall defect with air movement and bubbling. The defect allows air to enter during inspiration, producing audible sucking sounds and visible bubbling from blood-air mixture.
Answer: Do not attempt to replace organs into the abdomen. Replacing organs risks infection, further injury, or vascular compromise, so they should remain external and covered.
Answer: Supine position. Supine positioning optimizes venous return and perfusion in shock states without spinal contraindications.
Answer: Rapid transport to a trauma center with minimal scene time. Unstable patients require prompt surgical intervention, so minimizing delays improves outcomes in hemorrhagic trauma.
Answer: Positive-pressure ventilation with oxygen as needed. It stabilizes the flail segment and improves oxygenation by overcoming paradoxical motion and underlying pulmonary injury.
Answer: Pneumothorax. This condition disrupts the negative intrapleural pressure, allowing atmospheric air to enter and collapse the lung tissue.
Answer: Second intercostal space, midclavicular line. This site is preferred for its accessibility and proximity to the pleural space apex, minimizing risks during decompression.
Answer: High-flow oxygen and rapid transport for definitive care. Prioritizing oxygenation supports respiratory function while expediting surgical intervention for hemorrhage control.
Answer: Severe respiratory distress with hypotension. The building intrathoracic pressure shifts the mediastinum, reducing cardiac output and causing hypotension alongside impaired ventilation.
Answer: Spleen. The spleen's vascularity and left upper quadrant position make it vulnerable to deceleration forces in blunt impacts.
Answer: Lift or vent the dressing to release trapped air. Venting prevents pressure buildup that could convert the injury into a tension pneumothorax, alleviating worsening symptoms.
Answer: Cover with moist sterile dressing, then occlusive cover. Moist coverage prevents desiccation of organs, while occlusion minimizes contamination and fluid loss.
Answer: Vented chest seal (or occlusive dressing per protocol). It prevents air entry while allowing potential trapped air to escape, reducing the risk of developing tension pneumothorax.
Answer: Flail chest. Segmental rib fractures create an unstable chest wall section that moves oppositely during respiration, impairing ventilation.