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This deck focuses on Chest Trauma And Thoracic Emergencies, giving you a quick way to review the definitions, rules, and examples that matter most for NREMT Paramedic Level.
Study Chest Trauma And Thoracic Emergencies in NREMT Paramedic Level with focused flashcards that help you recognize the idea, recall the key rule, and apply it in practice-style prompts.
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What complication can occur if a completely occlusive chest seal is applied to an open pneumothorax?
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Conversion to tension pneumothorax. Without venting, trapped air from positive pressure can build up, increasing intrathoracic pressure and compromising hemodynamics.
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This deck focuses on Chest Trauma And Thoracic Emergencies, giving you a quick way to review the definitions, rules, and examples that matter most for NREMT Paramedic 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: Conversion to tension pneumothorax. Without venting, trapped air from positive pressure can build up, increasing intrathoracic pressure and compromising hemodynamics.
Answer: Pulmonary contusion. Blunt force causing flail chest often bruises underlying lung tissue, leading to alveolar damage and impaired gas exchange.
Answer: Rising end-tidal CO2 (increasing EtCO2). Capnography detects CO2 retention from hypoventilation before other signs like hypoxia manifest in chest trauma patients.
Answer: 2nd intercostal space at the midclavicular line. The anterior site targets the pleural cavity effectively for decompression while avoiding major vessels and organs.
Answer: Crepitus on palpation of the skin. Air escaping into subcutaneous tissues from lung or airway injury produces a crackling sensation due to trapped gas pockets.
Answer: Immediate needle decompression (do not delay for imaging). Clinical suspicion in unstable patients warrants prompt intervention to relieve intrathoracic pressure and restore hemodynamics.
Answer: VF triggered by blunt chest impact at a vulnerable cardiac cycle phase. Precise timing during ventricular repolarization (T-wave) renders the heart susceptible to arrhythmia from mechanical energy.
Answer: Electrical alternans (often with low voltage). Pericardial fluid causes beat-to-beat variation in QRS amplitude due to heart swinging within the effusion.
Answer: Decreased or absent breath sounds. Air in the pleural space disrupts lung expansion, leading to reduced sound transmission on auscultation of the affected side.
Answer: Vented chest seal (or occlusive seal per protocol). It permits air egress to prevent tension while sealing the defect to maintain negative intrapleural pressure during respiration.
Answer: Pericardial effusion with right-sided chamber collapse. Echocardiography reveals fluid compressing the right atrium or ventricle, confirming impaired diastolic filling in tamponade.
Answer: Positive-pressure ventilation as needed. It stabilizes the flail segment and overcomes paradoxical motion to improve oxygenation in patients with respiratory compromise.
Answer: Suspect tension pneumothorax and decompress immediately. Positive pressure can convert a simple pneumothorax to tension by forcing air into the pleural space, requiring urgent relief.
Answer: Air movement through an open chest wall defect. Audible or visible air flow indicates a communicating defect allowing atmospheric air to enter the pleural space during inspiration.
Answer: High-speed deceleration (motor vehicle collision or fall). Sudden deceleration shears the aorta at ligamentum arteriosum attachment, risking rupture in high-velocity impacts.
Answer: Rapid transport for definitive surgical care. Prehospital care focuses on stabilization and expedited delivery to a facility capable of pericardiocentesis or thoracotomy.
Answer: Ventricular fibrillation from cardiac contusion or commotio cordis. Blunt impact can disrupt myocardial electrical stability, inducing lethal arrhythmias like VF leading to sudden cardiac arrest.
Answer: Insert just over the superior border of the rib. The neurovascular bundle runs along the inferior rib edge, so superior insertion reduces risk of injury during the procedure.
Answer: Paradoxical chest wall movement of a rib segment. Multiple rib fractures create a free-floating segment that moves oppositely to the chest wall, impairing effective ventilation.
Answer: Obstructive shock from progressive intrathoracic pressure. Air accumulation under pressure compresses mediastinal structures, impairing venous return and causing hemodynamic instability.
Answer: Decreased sounds with dullness (fluid) rather than hyperresonance. Fluid accumulation dampens percussion and sound transmission, contrasting with the air-filled hyperresonance seen in pneumothorax.
Answer: Tracheobronchial injury. Tears in the airway allow continuous air escape into the pleural space, preventing effective pressure equalization and lung inflation.
Answer: 4th or 5th intercostal space, anterior to mid-axillary line. This lateral site allows safe access to the pleural space while minimizing risk to vital structures in prehospital settings.
Answer: Hypotension, jugular venous distention, muffled heart sounds. Pericardial fluid impairs cardiac filling, leading to low output, venous congestion, and diminished auscultatory heart tones.
Answer: Shock with absent breath sounds and dullness to percussion. Significant blood accumulation in the pleural space causes hypovolemic shock with signs of fluid effusion on examination.