Ventilator Management Course

Lesson 1 • Basic Ventilator Controls and Displays

Introduces primary control knobs, digital interfaces, and waveform displays common to modern ventilators. Prepares clinicians to navigate the interface before applying any ventilation mode.

Lesson 2 • Respiratory Physiology Review

Covers gas exchange, lung volumes, and pressure-flow relationships essential for ventilator management. Establishes the physiological baseline for all subsequent ventilator decisions.

Lesson 3 • Ventilator Circuit and Components

Identifies the physical components of a ventilator circuit and their functional roles. Provides the hardware literacy needed to set up and troubleshoot equipment safely.

Lesson 1 • Pressure Support and Spontaneous Modes

Covers patient-triggered, pressure-supported breathing and its role in weaning. Demonstrates how spontaneous modes reduce sedation needs and preserve respiratory muscle function.

Lesson 2 • Pressure-Controlled Ventilation

Teaches pressure-limited breath delivery and its effect on tidal volume variability. Highlights clinical scenarios where pressure control offers advantages over volume control.

Lesson 3 • Dual and Adaptive Control Modes

Introduces modes that automatically adjust pressure to achieve a volume target breath by breath. Prepares clinicians to use adaptive modes safely and interpret their automated adjustments.

Lesson 4 • Volume-Controlled Ventilation

Explains how the ventilator delivers a fixed tidal volume regardless of airway pressure changes. Connects volume targeting to lung protection and minute ventilation goals.

Lesson 1 • FiO2 and PEEP Titration

Presents systematic FiO2 and PEEP pairing tables and individualized titration strategies. Achieves adequate oxygenation while limiting oxygen toxicity and hemodynamic compromise.

Lesson 2 • Setting Respiratory Rate and Minute Ventilation

Guides selection of respiratory rate to achieve target minute ventilation and pH. Balances CO2 clearance against auto-PEEP risk from excessive rates.

Lesson 3 • Calculating Ideal Body Weight

Teaches height-based ideal body weight calculation used to determine lung-protective tidal volumes. Prevents volutrauma by anchoring tidal volume to predicted lung size, not actual weight.

Lesson 1 • Volume-Time and Pressure-Volume Loops

Interprets volume-time curves and P-V loops to assess compliance, overdistension, and recruitment. Provides a graphical tool for optimizing PEEP and tidal volume selection.

Lesson 2 • Pressure-Time Waveform Interpretation

Analyzes the shape of pressure-time curves to identify patient effort, leaks, and flow starvation. Connects waveform morphology to specific ventilator setting adjustments.

Lesson 3 • Respiratory Mechanics Measurements

Performs inspiratory and expiratory hold maneuvers to calculate plateau pressure, static compliance, and auto-PEEP. Translates mechanics data into actionable ventilator adjustments.

Lesson 4 • Capnography and Gas Exchange Monitoring

Integrates end-tidal CO2 monitoring with arterial blood gas data to assess ventilation efficiency. Identifies dead space changes and guides CO2 management without frequent blood draws.

Lesson 1 • Pathophysiology of ARDS

Describes the Berlin definition, stages, and heterogeneous lung injury pattern of ARDS. Provides the mechanistic rationale for every lung-protective intervention that follows.

Lesson 2 • PEEP Optimization in ARDS

Compares high-PEEP versus low-PEEP strategies and individualized titration methods. Selects PEEP levels that maximize alveolar recruitment without causing hemodynamic compromise.

Lesson 3 • Adjunct Therapies in Severe ARDS

Reviews neuromuscular blockade, inhaled vasodilators, and extracorporeal support as adjuncts to lung-protective ventilation. Defines the threshold criteria for escalating to each intervention.

Lesson 4 • Low Tidal Volume Ventilation Protocol

Applies the 6 mL/kg IBW tidal volume protocol with plateau pressure limits below 30 cmH2O. Demonstrates the mortality benefit and the management of resulting hypercapnia.

Lesson 1 • Systematic Approach to Acute Deterioration

Applies the DOPE mnemonic and a stepwise algorithm to evaluate sudden desaturation or high-pressure alarms. Prevents delayed diagnosis by separating patient from circuit causes.

Lesson 2 • Air Leak Syndromes and Barotrauma

Recognizes pneumothorax, pneumomediastinum, and subcutaneous emphysema as ventilator-related complications. Guides immediate management including chest decompression during active ventilation.

Lesson 3 • Patient-Ventilator Dyssynchrony

Identifies trigger, flow, cycle, and reverse dyssynchrony types using waveform analysis. Corrects each dyssynchrony type through targeted ventilator setting adjustments.

Lesson 4 • Managing High-Pressure Alarms

Differentiates causes of elevated peak and plateau pressures and applies corrective interventions. Prevents barotrauma by acting on pressure data before injury occurs.

Lesson 1 • Post-Extubation Support and Reintubation

Applies high-flow nasal cannula and noninvasive ventilation to prevent post-extubation respiratory failure. Defines objective criteria and timing for reintubation when support fails.

Lesson 2 • Readiness Assessment for Weaning

Applies objective criteria to determine when a patient is physiologically ready to begin weaning. Prevents premature weaning attempts and unnecessary prolongation of ventilation.

Lesson 3 • Extubation Decision and Procedure

Guides the clinical decision to extubate and the safe procedural steps for airway removal. Prepares the team for immediate post-extubation management and rescue interventions.

Lesson 4 • Spontaneous Breathing Trial Methods

Compares T-piece, low-pressure support, and CPAP spontaneous breathing trial techniques. Selects the appropriate SBT method based on patient tolerance and clinical context.

Lesson 1 • Ventilation During Transport and Procedures

Prepares clinicians to maintain safe ventilation during intra-hospital transport and procedural sedation. Identifies equipment limitations and monitoring requirements outside the ICU environment.

Lesson 2 • Post-Cardiac Surgery Ventilation

Covers the hemodynamic-ventilation interactions and rapid weaning protocols used after cardiac surgery. Addresses phrenic nerve injury, pleural effusions, and sternal instability as ventilator challenges.

Lesson 3 • Ventilation in Obese Patients

Manages the elevated airway pressures, reduced FRC, and positioning challenges unique to obese patients. Applies reverse Trendelenburg and PEEP strategies to improve respiratory mechanics.

Lesson 4 • Neonatal and Pediatric Ventilation

Addresses the anatomical and physiological differences that require modified ventilator settings in children. Applies age-appropriate tidal volume, rate, and pressure targets across pediatric age groups.