What this deck covers
This deck focuses on Mechanical And Advanced Ventilatory Support, giving you a quick way to review the definitions, rules, and examples that matter most for NREMT Paramedic Level.
Study Mechanical And Advanced Ventilatory Support in NREMT Paramedic 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 correct formula for minute ventilation (V˙E) used when setting a ventilator?
Tap card or press Space to flip
V˙E=VT×RR. This calculates total gas volume moved per minute to guide ventilation settings.
How well did you know it?
Card 1 / 25
Space to flip · ← / → to move · once flipped, → Got it · ← Still learning
This deck focuses on Mechanical And Advanced Ventilatory Support, 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: V˙E=VT×RR. This calculates total gas volume moved per minute to guide ventilation settings.
Answer: MAP=DBP+31(SBP−DBP). This formula estimates average arterial pressure to monitor perfusion in ventilated patients.
Answer: Augment spontaneous breaths with preset inspiratory pressure. This reduces inspiratory work by providing pressure assistance during patient-triggered breaths.
Answer: Inability to protect airway (e.g., vomiting, altered mental status). This increases aspiration risk, necessitating invasive ventilation for airway protection.
Answer: Minute ventilation primarily determines CO2 removal. This controls CO2 elimination by determining alveolar ventilation rate.
Answer: Absent or rapidly diminishing ETCO2 waveform despite ventilation. This indicates lack of CO2 from the trachea, confirming improper tube placement in the esophagus.
Answer: FiO2 (and PEEP) primarily determine oxygenation. These settings enhance oxygen delivery and alveolar recruitment to improve arterial oxygenation.
Answer: Volume-controlled ventilation (VC/AC or CMV). This mode ensures consistent tidal volume delivery regardless of changing lung compliance.
Answer: Cstat=Pplat−PEEPVT. This assesses lung distensibility by relating volume to pressure difference at zero flow.
Answer: BiPAP provides two pressures (IPAP and EPAP); CPAP provides one. BiPAP assists inspiration and expiration separately, improving ventilation over constant CPAP.
Answer: Hypoventilation or increased dead space; consider obstruction/bronchospasm. This reflects CO2 retention from impaired gas exchange or increased airway resistance.
Answer: 6-8 mL/kg ideal body weight. This range minimizes volutrauma while ensuring adequate ventilation in protective strategies.
Answer: Decrease respiratory rate (and/or decrease tidal volume). This prolongs exhalation phase to allow complete lung emptying and prevent air trapping.
Answer: Insufficient expiratory time, often from high RR or large tidal volume. This leads to air trapping and hyperinflation due to incomplete exhalation.
Answer: Low pressure or low exhaled tidal volume (low-pressure alarm). This alarm indicates a system leak preventing adequate pressure or volume delivery.
Answer: Positive pressure maintained at end-expiration to prevent alveolar collapse. This improves oxygenation by increasing functional residual capacity and alveolar recruitment.
Answer: Spontaneous breaths between synchronized mandatory breaths. This promotes patient-ventilator synchrony and facilitates weaning from mechanical support.
Answer: Pressure-controlled ventilation (PC/AC). This mode limits barotrauma by controlling pressure while adapting to lung mechanics.
Answer: Continuous positive pressure throughout the entire respiratory cycle. This maintains airway patency and enhances oxygenation in patients with spontaneous respirations.
Answer: Maintain oxygenation and ventilation while reducing work of breathing. This ensures adequate gas exchange and minimizes patient effort in acute respiratory failure.
Answer: Continuous waveform capnography (ETCO2). This provides real-time CO2 detection to confirm tracheal placement and monitor ventilation.
Answer: Disconnect and ventilate with a BVM and 100% oxygen. This allows manual oxygenation and rapid assessment using the DOPE mnemonic for troubleshooting.
Answer: Needle decompression (or finger thoracostomy per protocol) and reassess. This relieves intrathoracic pressure to restore venous return and lung expansion.
Answer: Ventilator/circuit disconnection or extubation (loss of exhaled CO2). This suggests sudden interruption of gas flow from the patient's airway to the capnograph.
Answer: High peak inspiratory pressure (high-pressure alarm). This alarm triggers from increased airway resistance obstructing flow.