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⚠ Pending professional review

This course plan, its lessons and its assessments has not yet been verified by a licensed clinician in the field or by a certification or approval body. It is a study draft and may contain errors. Do not use it to make decisions about any patient or medication. Always follow your instructor, your supervising professional, and current official references and regulations.

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Respiratory Therapy

9 courses · 3,600 clock hours · 24 mo full-time. Grading is competency-based: each course requires the written exam, a competent skills demonstration with zero safety faults, a signed log, and a passed safety audit; percentage weights only rank performance above the competency floor.

$50,935 COMPLIMENTARYprogram tuition
9courses
79lessons
3,600hours
31assessments
Development progressPlanCourses, lessons and assessments written for this tradeLessons79 of 79 lesson pages writtenPractice631 practice questionsResources120 reference entries (study list)Review0 lesson pages reviewed by a licensed professional
Study now: 79 lesson pages are open (lesson titles below are links).
HLT-RESP80-01 Universal core

Universal Core: Safety, Math, Communication & Career in Respiratory Therapy

148 hr · $1,185 COMPLIMENTARY

This foundational course equips entry-level respiratory therapy students with the safety protocols, mathematical skills, technical literacy, and professional habits required throughout the program and on the job. Students earn OSHA 10-Hour General Industry certification and Healthcare Provider CPR/AED certification while developing the numeracy and communication competencies that underpin safe patient care. All content is contextualized to respiratory therapy settings, clinical documentation standards, and the professional expectations of employers and credentialing bodies.

Outcomes
Course text

This foundational course equips entry-level respiratory therapy students with the safety protocols, mathematical skills, technical literacy, and professional habits required throughout the program and on the job. Students earn OSHA 10-Hour General Industry certification and Healthcare Provider CPR/AED certification while developing the numeracy and communication competencies that underpin safe patient care. All content is contextualized to respiratory therapy settings, clinical documentation standards, and the professional expectations of employers and credentialing bodies.

How the course runs. 7 blocks: Workplace Safety and OSHA 10-Hour General Industry Certification; Infection Control, PPE, and Bloodborne Pathogen Standards in Respiratory Therapy; Healthcare Provider CPR, AED, and First Aid; Respiratory Therapy Math: Units, Conversions, and Gas Laws; Medical Terminology, Technical Reading, and Clinical Documentation; Digital Tools: EHR Simulation, Telehealth, and Professional Databases; Professional Identity, Career Planning, and Credentialing Roadmap.

What competent looks like. Demonstrate compliance with OSHA general industry safety standards and infection-control protocols specific to respiratory therapy environments, achieving OSHA 10-Hour certification. Perform accurate dosage calculations, unit conversions, and gas-law mathematics at a level sufficient for respiratory therapy clinical coursework and NBRC examinations. Interpret and produce clinical documentation—including patient charts, therapy orders, incident reports, and competency records—using correct medical terminology and abbreviations. Apply Healthcare Provider CPR/AED skills to adult, child, and infant patients, meeting American Heart Association competency standards. Use digital tools including electronic health record (EHR) simulation software, reference databases, and telehealth platforms as required in modern respiratory therapy practice. Construct a professional portfolio and articulate a career development plan that maps program milestones to NBRC CRT/RRT credentialing requirements and state licensure steps.

Lessons · 7 blocks
#LessonHrTypeObjectiveActivitiesMaterialsCheck
1Workplace Safety and OSHA 10-Hour General Industry Certification12theoryStudents will identify and apply OSHA general industry standards relevant to healthcare and respiratory therapy workplaces, earning the OSHA 10-Hour General Industry card.
  1. Complete all 10 required OSHA 10-Hour General Industry modules using the OSHA-authorized provider courseware, with built-in knowledge checks after each module.
  2. Analyze real respiratory therapy incident reports (de-identified) to classify hazards by OSHA category—chemical, biological, physical, ergonomic—and propose corrective actions in writing.
  3. Conduct a guided virtual walkthrough of a hospital respiratory therapy department, flagging at least five compliance issues against an OSHA checklist, then debrief as a group.
OSHA 10-Hour General Industry authorized courseware; OSHA 29 CFR Part 1910 reference guide; de-identified incident report samples; virtual department walkthrough video; OSHA hazard checklist templateSuccessful completion of all OSHA 10-Hour modules and passing the OSHA 10-Hour final assessment (as required by the authorized provider) to earn the completion card; instructor verification that incident-report analysis identifies all major hazard categories — 100% module completion required, card must be earned.
2Infection Control, PPE, and Bloodborne Pathogen Standards in Respiratory Therapy14labStudents will correctly select, don, doff, and dispose of personal protective equipment (PPE) and apply standard and transmission-based precautions in simulated respiratory therapy scenarios.
  1. Practice the complete PPE sequence (gown, gloves, surgical mask, N95 respirator, eye protection, face shield) using return demonstration against a skills checklist, with a lab partner observing and scoring each step.
  2. Simulate a bronchoscopy-assist scenario in the lab, applying contact and airborne precautions throughout, then decontaminate the simulated equipment following departmental protocol.
  3. Complete the OSHA Bloodborne Pathogen annual training module and document a post-exposure control plan for a hypothetical needlestick during an arterial blood gas draw.
Full PPE sets (gloves, gowns, N95 respirators, surgical masks, face shields, goggles); OSHA Bloodborne Pathogen training module; skills checklist for donning/doffing; simulated bronchoscope and decontamination supplies; CDC isolation precautions reference cardReturn-demonstration PPE skills checklist scored by instructor — student must achieve 100% on critical safety steps (e.g., no self-contamination during doffing) and at least 80% overall; Bloodborne Pathogen module completion certificate required.
3Healthcare Provider CPR, AED, and First Aid16labStudents will perform American Heart Association Healthcare Provider-level CPR, AED operation, and basic first aid on adult, child, and infant manikins to the standard required for clinical placement.
  1. Practice high-quality chest compressions and rescue breathing on adult, child, and infant manikins with real-time feedback devices, rotating through one- and two-rescuer CPR sequences until rate and depth meet AHA guidelines.
  2. Use an AED trainer to complete three full AHA automated external defibrillator scenarios—including scene safety, pad placement, shock delivery, and immediate CPR resumption—in under two minutes each.
  3. Complete AHA first-aid scenarios covering airway obstruction (adult and infant), severe bleeding control with direct pressure and tourniquet, and recognition of respiratory distress, documenting each scenario on an assessment card.
AHA Healthcare Provider CPR course materials; adult, child, and infant manikins with CPR feedback devices; AED trainers; first-aid supplies (bandages, tourniquets, gloves); AHA skills testing checklistsAHA Healthcare Provider CPR/AED skills check performed by AHA-certified instructor — all critical skills (adequate rate, adequate depth, full recoil, no excessive ventilation, correct AED operation) must pass at 100%; written AHA knowledge check must score at least 84% per AHA requirements; card is issued only upon passing both components.
4Respiratory Therapy Math: Units, Conversions, and Gas Laws28theoryStudents will solve respiratory therapy dosage, unit-conversion, and gas-law problems — including Boyle's Law, Charles's Law, and the combined gas law — with at least 80% accuracy on a timed assessment.
  1. Work through a structured problem set covering metric-to-imperial unit conversions (liters, milliliters, kilograms, pounds, Fahrenheit/Celsius/Kelvin), using a step-by-step dimensional analysis template, and self-score with an answer key before peer review.
  2. Apply Boyle's Law and Charles's Law to calculate cylinder duration for oxygen and compressed-air cylinders of various sizes given flow rates and starting pressures, documenting the formula, substitution, and answer for each problem.
  3. Complete a timed 30-problem mixed-calculation drill (dosage, conversions, and gas laws) under exam-like conditions, then review errors in pairs using a worked-solutions guide to identify error patterns.
Dimensional analysis worksheets; gas-law problem sets; oxygen cylinder duration reference table; scientific calculator; Egan's Fundamentals of Respiratory Care (current edition) math chapters; NBRC self-assessment content outline (math-related items)Timed 30-problem math quiz scored by instructor — passing score is 80% or higher; students scoring below 80% complete a mandatory remediation set and retest once before the unit closes.
5Medical Terminology, Technical Reading, and Clinical Documentation28theoryStudents will correctly interpret physician orders, chart entries, and therapy notes using standard medical abbreviations, and produce a complete, accurately documented respiratory therapy SOAP note.
  1. Decode a packet of ten de-identified physician orders and chart entries containing respiratory therapy abbreviations and terminology, writing a plain-language interpretation for each item and flagging any potentially dangerous abbreviation (e.g., those on the ISMP Do-Not-Use list).
  2. Read a three-page respiratory therapy case study drawn from a peer-reviewed respiratory care journal, then answer structured comprehension questions requiring identification of the clinical problem, therapy ordered, patient response, and documentation elements.
  3. Draft a full SOAP (Subjective, Objective, Assessment, Plan) note for a simulated patient scenario—acute exacerbation of COPD—using an instructor-provided template and medical terminology guide, then exchange with a peer for accuracy review.
De-identified physician order packets; ISMP Do-Not-Use abbreviations list; respiratory care journal articles (open-access); SOAP note template; Egan's Fundamentals of Respiratory Care; Taber's Cyclopedic Medical Dictionary; medical terminology workbookSOAP note evaluated by instructor against a documentation rubric — must include all four SOAP sections, use correct terminology throughout, contain no dangerous abbreviations, and score at least 80%; abbreviation-decoding packet must achieve 80% correct interpretations.
6Digital Tools: EHR Simulation, Telehealth, and Professional Databases22demoStudents will navigate an EHR simulation system to enter respiratory therapy documentation, locate evidence-based clinical references using professional databases, and describe the role of telehealth monitoring in respiratory care.
  1. Log into the program's EHR simulation platform, enter a complete respiratory therapy assessment and treatment record for a simulated ventilator patient, and generate a shift summary report, correcting any system-flagged errors before submission.
  2. Use a professional clinical database (such as ClinicalKey, DynaMed, or a respiratory care-specific reference) to locate the current evidence-based guideline for a common respiratory therapy intervention, summarize the key recommendation in three sentences, and cite the source in APA format.
  3. Watch a recorded telehealth respiratory monitoring scenario, then participate in a facilitated discussion identifying how the RT interprets waveform data remotely, communicates with bedside staff, and documents the encounter—listing three workflow differences from in-person care.
EHR simulation software (institutional license); clinical database access (ClinicalKey, DynaMed, or equivalent); telehealth monitoring scenario recording; APA citation guide; computer workstations or laptops; AARC Clinical Practice Guidelines (available at aarc.org)EHR documentation entry reviewed by instructor for completeness and accuracy — all required fields populated, no unresolved system errors, and assessment/plan entries match the simulated clinical scenario; score of at least 80% on EHR entry rubric required to pass this lesson.
7Professional Identity, Career Planning, and Credentialing Roadmap28practiceStudents will construct a professional e-portfolio containing a résumé, professional mission statement, and a written credentialing roadmap that correctly sequences program completion, NBRC CRT/RRT examination eligibility, and state licensure application steps.
  1. Research the NBRC CRT and RRT credential requirements using the official NBRC website, then create a credentialing timeline chart that maps each program milestone (course completion, clinical hours, graduation) to NBRC eligibility criteria and the student's own target exam date.
  2. Research the state RT licensing process for the state in which the student intends to practice—identifying the licensing authority, application requirements, and any continuing-education obligations—and write a one-page summary with source citations.
  3. Build an e-portfolio using a provided template (Google Sites, Seesaw, or equivalent), including a professional résumé formatted for healthcare employment, a 150-word professional mission statement connecting personal values to the RT profession, and the completed credentialing timeline; present the portfolio to a small peer group for structured feedback.
NBRC official website (nbrc.org) and NBRC CRT/RRT candidate handbook; state respiratory care licensing board website; e-portfolio platform (Google Sites or institutional equivalent); résumé template for healthcare workers; professional mission statement guide; peer feedback formPortfolio scored by instructor on a 4-category rubric (résumé completeness, mission statement clarity, credentialing roadmap accuracy, professional presentation) — student must score at least 80% overall and the credentialing roadmap must contain zero factual errors about NBRC requirements or state licensure steps; peer feedback must be completed and submitted.
Assessments
AssessmentTypeWeightPass standardMethod & rubric
Safety and Regulatory Knowledge ExamWritten exam25%80% or higher on a 50-item multiple-choice exam; OSHA 10-Hour card and CPR/AED card must already be on file.A 50-item multiple-choice exam covering OSHA general industry standards applicable to healthcare, infection-control and PPE selection, bloodborne pathogen standards, and Healthcare Provider CPR/AED protocols as they apply to respiratory therapy settings. Items are written at the application and analysis level to reflect the style of NBRC examination questions, which also test knowledge of safe practice.
Accuracy · Safety · Communication · Professionalism
Respiratory Therapy Math and Documentation ExamWritten exam25%80% or higher; any item involving a critical safety calculation (cylinder duration, dosage) must be answered correctly — a single critical-safety error triggers mandatory remediation before the student advances.A 40-item timed exam combining respiratory therapy unit conversions, gas-law calculations, and cylinder-duration problems (25 items) with medical-terminology interpretation and documentation questions requiring students to identify errors in a sample SOAP note (15 items). This assessment maps directly to the quantitative and charting competencies tested across NBRC CRT and RRT examination content areas.
Accuracy · Safety · Communication · Professionalism
Professional E-Portfolio ProjectProject25%80% or higher on the four-category rubric; credentialing roadmap must be factually accurate (no errors regarding NBRC or state licensure requirements) — factual errors in the roadmap require correction before a passing grade is awarded.Students submit the completed professional e-portfolio containing a healthcare-formatted résumé, professional mission statement, state licensure research summary, and the NBRC credentialing timeline. The portfolio is scored on a rubric addressing content accuracy, professional presentation, written clarity, and completeness, preparing students for the professional identity and career planning expectations of employers and licensing boards.
Accuracy · Safety · Communication · Professionalism
Professional Identity and Credentialing Oral DefenseOral / panel25%Pass on all three rubric domains (content knowledge, professional communication, critical thinking) — a 'not yet' on any domain requires one remediation session and a second defense attempt within five business days.A 10–15 minute individual oral examination in which the student presents their e-portfolio to the course instructor and one program faculty member, then responds to spontaneous questions about OSHA requirements, CPR decision-making, a dosage calculation scenario, and the correct sequence of steps from program completion to licensed practice in their intended state. This oral defense simulates the professional communication standard expected during job interviews and NBRC application processes.
Accuracy · Safety · Communication · Professionalism
HLT-RESP80-02 Trade course

Cardiopulmonary Anatomy & Physiology

439 hr · $8,220 COMPLIMENTARY

This course builds the anatomical and physiological foundation every respiratory therapist must master before touching a patient or a ventilator. Students study the structures, mechanics, and regulatory systems of the cardiovascular and pulmonary systems in the depth required for clinical decision-making and NBRC examination success. Emphasis is placed on connecting structural detail to bedside observations such as breath sounds, oxygenation trends, and hemodynamic changes.

Outcomes
Course text

This course builds the anatomical and physiological foundation every respiratory therapist must master before touching a patient or a ventilator. Students study the structures, mechanics, and regulatory systems of the cardiovascular and pulmonary systems in the depth required for clinical decision-making and NBRC examination success. Emphasis is placed on connecting structural detail to bedside observations such as breath sounds, oxygenation trends, and hemodynamic changes.

How the course runs. 12 blocks: Overview of the Respiratory System: Structures, Functions, and Clinical Relevance; Microanatomy of the Lung: Alveoli, Surfactant, and the Respiratory Membrane; Mechanics of Breathing: Pressure, Volume, and the Work of Breathing; Respiratory Muscles and the Mechanics of the Thoracic Cage; Lung Volumes, Capacities, and Pulmonary Function Measurements; Pulmonary Gas Exchange: Diffusion, Partial Pressures, and the Alveolar Gas Equation; Oxygen Transport: Hemoglobin, the Oxyhemoglobin Dissociation Curve, and Tissue Delivery; Carbon Dioxide Transport and Acid-Base Balance; Anatomy and Physiology of the Heart: Chambers, Valves, and Coronary Circulation; The Cardiac Cycle, Cardiac Output, and Hemodynamics; Pulmonary Circulation, Ventilation-Perfusion Matching, and Shunt; Control of Ventilation, Breathing Patterns, and Clinical Correlations.

What competent looks like. Identify and describe all major structures of the upper and lower airways, lungs, and thoracic cage and explain the functional role of each in ventilation. Explain the mechanics of breathing, including the pressure-volume relationships, work of breathing, and the roles of respiratory muscles and elastic recoil. Describe pulmonary circulation and systemic circulation, trace the path of blood through the heart, and explain the cardiac cycle and its pressure and volume changes. Apply the principles of gas exchange, oxygen transport, and carbon dioxide elimination to interpret basic arterial blood gas values and oximetry readings. Explain the neural and chemical control of ventilation, including the role of central and peripheral chemoreceptors, and predict how common clinical conditions alter breathing patterns. Correlate normal cardiopulmonary anatomy and physiology with observable clinical signs, preparing students to recognize deviations that require respiratory therapy intervention.

Lessons · 12 blocks
#LessonHrTypeObjectiveActivitiesMaterialsCheck
1Overview of the Respiratory System: Structures, Functions, and Clinical Relevance30theoryStudents will identify and label all major structures of the upper airway, lower airway, and thoracic cage on anatomical diagrams and explain the primary function of each structure.
  1. Lecture with projected cross-sectional diagrams of the airway from nares to alveoli; students annotate printed diagrams in real time and compare with a partner.
  2. Small-group card-sorting activity matching structure names, locations, and functions; groups defend their final arrangements to the class.
  3. Short written response: students describe in plain language what happens to inspired air at each anatomical landmark from the nose to the respiratory bronchiole.
Tortora & Derrickson 'Principles of Anatomy and Physiology' (current edition); Scanlan, Egan's Fundamentals of Respiratory Care (current edition); full-color airway anatomy posters; printed blank airway diagrams; whiteboard.Labeled diagram quiz: student must correctly identify and name at least 90% of 30 labeled structures to pass.
2Microanatomy of the Lung: Alveoli, Surfactant, and the Respiratory Membrane32theoryStudents will describe the cellular composition of the alveolar wall, explain the role of surfactant in preventing alveolar collapse, and calculate how surface tension and compliance interact using Laplace's law.
  1. Instructor-led lecture using histology images of Type I and Type II pneumocytes, alveolar macrophages, and the capillary endothelium; students sketch and label the respiratory membrane layers.
  2. Worked example problems: students calculate the relationship between alveolar radius and pressure using Laplace's law and predict what happens to a premature infant's alveoli without surfactant.
  3. Case vignette discussion: students read a brief clinical scenario about infant respiratory distress syndrome and identify which anatomical structures are functionally compromised and why.
Egan's Fundamentals of Respiratory Care; histology image set (printed or projected); Laplace's law worksheet; clinical case handout.Exit ticket: five-question short-answer quiz on alveolar cell types, surfactant function, and Laplace's law; minimum score of 80% required.
3Mechanics of Breathing: Pressure, Volume, and the Work of Breathing40labStudents will measure and record lung compliance and airway resistance values using a classroom spirometry model and explain how changes in each affect the work of breathing.
  1. Instructor demonstration of a mechanical lung model showing normal versus decreased compliance; students observe pressure and volume readings and record data in a structured lab worksheet.
  2. Paired lab activity: students take turns adjusting model parameters (stiffness settings representing fibrosis or normal lung) and measuring the pressure required to deliver the same tidal volume, graphing results on a pressure-volume curve.
  3. Calculation exercise: using recorded data, students compute static compliance (change in volume divided by change in pressure) and compare values to normal reference ranges from Egan's.
Mechanical lung model or analogous classroom simulation device; spirometry teaching software; graph paper or spreadsheet template; Egan's Fundamentals of Respiratory Care reference tables; lab worksheet.Completed and signed lab worksheet with correctly plotted pressure-volume curves and compliance calculations within 10% of expected values; instructor reviews each worksheet before the student leaves the lab session.
4Respiratory Muscles and the Mechanics of the Thoracic Cage35demoStudents will identify primary and accessory muscles of inspiration and expiration, explain the role of intrapleural pressure in lung expansion, and describe how pneumothorax disrupts normal mechanics.
  1. Instructor demonstration using a bell-jar lung model to show how diaphragm descent creates negative intrapleural pressure and draws air into the lungs; students predict what happens when the seal is broken.
  2. Students palpate their own thoracic cage while performing slow deep breaths, noting which muscles contract during quiet breathing versus forced breathing, and record observations in a structured note guide.
  3. Group analysis of a simple diagram showing normal versus tension pneumothorax; students trace the mechanical consequences step by step from the initial pleural breach to mediastinal shift and explain why immediate intervention is required.
Bell-jar lung demonstration model; printed muscle anatomy diagram of the thorax; structured observation note guide; Egan's Fundamentals of Respiratory Care; whiteboard for group tracing exercise.Oral spot-check: instructor asks each student to identify three inspiratory muscles and explain intrapleural pressure during inspiration; student must answer all three elements correctly to pass.
5Lung Volumes, Capacities, and Pulmonary Function Measurements38labStudents will measure tidal volume, vital capacity, and forced expiratory volume using a spirometer, interpret the results against predicted normal values, and identify patterns consistent with obstructive and restrictive disease.
  1. Instructor-led setup and calibration of bedside spirometers; students practice proper mouthpiece technique, nose-clip use, and infection-control procedures before recording any measurements.
  2. Each student performs at least three acceptable spirometry maneuvers; pairs record results, calculate percent-predicted values using standard reference equations, and flag any values outside the normal range.
  3. Interpretation exercise: students review three sets of pre-printed spirometry reports (normal, obstructive pattern, restrictive pattern) and write a one-paragraph clinical interpretation for each, using NBRC-aligned terminology.
Handheld bedside spirometers; disposable mouthpieces and nose clips; spirometry reference value tables (from Egan's or ATS/ERS guidelines); pre-printed spirometry report set; infection-control supplies.Lab report submitted with three acceptable spirometry trials, correct percent-predicted calculations, and accurate written interpretation of the three pre-printed reports; all three interpretations must be scored as acceptable by the instructor.
6Pulmonary Gas Exchange: Diffusion, Partial Pressures, and the Alveolar Gas Equation40theoryStudents will apply Dalton's law and Henry's law to calculate partial pressures of oxygen and carbon dioxide in alveolar gas and arterial blood, and use the alveolar gas equation to identify causes of hypoxemia.
  1. Lecture and worked examples: instructor walks through Dalton's law, the alveolar gas equation (PAO2 = FiO2 × [PB − PH2O] − PaCO2/RQ), and normal alveolar and arterial gas values; students solve five calculation problems with increasing complexity.
  2. Paired problem-solving: students receive a set of clinical scenarios (high altitude, hypoventilation, diffusion impairment) and calculate expected PAO2 and A-a gradient for each, then rank scenarios by severity of gas-exchange impairment.
  3. Group debrief: pairs present one scenario each; class discusses how each cause of hypoxemia would be addressed differently by the respiratory therapist, linking physiology to intervention.
Egan's Fundamentals of Respiratory Care; calculation worksheet; scientific calculators; whiteboard; NBRC content outline (Therapist Multiple Choice exam blueprint, current version).Five-problem calculation quiz; students must correctly solve at least four of five problems including correct use of the alveolar gas equation to pass.
7Oxygen Transport: Hemoglobin, the Oxyhemoglobin Dissociation Curve, and Tissue Delivery38theoryStudents will describe how oxygen is carried in the blood, interpret shifts in the oxyhemoglobin dissociation curve caused by changes in pH, temperature, PaCO2, and 2,3-DPG, and calculate oxygen content and delivery.
  1. Instructor presents the oxyhemoglobin dissociation curve and explains right and left shifts; students draw the curve from memory on blank axes, then annotate the conditions that cause each shift direction.
  2. Calculation practice: students use the oxygen content equation (CaO2 = [Hb × 1.34 × SaO2] + [PaO2 × 0.003]) to solve patient scenarios involving anemia, carbon monoxide poisoning, and polycythemia; they explain which parameter to correct first for each patient.
  3. Case study: a written vignette of a patient with carbon monoxide poisoning; students predict SpO2 pulse oximetry readings, explain why standard oximetry is misleading in this scenario, and identify the correct monitoring device and treatment priority.
Egan's Fundamentals of Respiratory Care; blank oxyhemoglobin dissociation curve worksheets; scientific calculators; carbon monoxide case study handout.Calculation quiz (five items) plus a short written explanation of the CO poisoning scenario; students must score 80% or above across both components to pass.
8Carbon Dioxide Transport and Acid-Base Balance38theoryStudents will explain the three mechanisms of carbon dioxide transport in blood, apply the Henderson-Hasselbalch equation to interpret pH, and classify arterial blood gas results as normal, respiratory acidosis, respiratory alkalosis, metabolic acidosis, or metabolic alkalosis with or without compensation.
  1. Lecture on CO2 transport mechanisms (dissolved, carbamino, and bicarbonate) and the Henderson-Hasselbalch equation; students complete a guided note packet and work two example ABG problems with the instructor.
  2. ABG interpretation drill: students individually classify a set of 10 pre-printed ABG values using the four-step method (pH → PaCO2 → HCO3 → compensation); pairs check each other's work against an answer key.
  3. Group whiteboard challenge: instructor calls out clinical scenarios (e.g., hyperventilating post-surgical patient, patient with COPD retaining CO2) and student teams race to write the expected ABG pattern and the respiratory therapist's role in management.
Egan's Fundamentals of Respiratory Care; ABG interpretation worksheet set (10 cases); Henderson-Hasselbalch reference card; whiteboards or large paper pads; dry-erase markers.Ten-item ABG classification quiz; students must correctly classify at least nine of ten results, including correct identification of compensation, to pass.
9Anatomy and Physiology of the Heart: Chambers, Valves, and Coronary Circulation35theoryStudents will trace the complete path of blood through all four chambers of the heart, name each valve and its function, and describe coronary artery distribution and its clinical relevance to myocardial infarction.
  1. Lecture with projected anatomical diagrams and a heart model; students label a blank diagram of the heart including chambers, valves, great vessels, and coronary arteries as the instructor presents each structure.
  2. Peer-teaching pairs: one student explains the path of blood through the right side of the heart while the other traces it on a diagram, then they switch for the left side; instructor circulates to correct errors.
  3. Short case analysis: students read a description of a patient with left anterior descending artery occlusion, identify which myocardial territory is at risk, and explain how this could affect pulmonary function and the need for respiratory therapy support.
3D heart model; projected cardiac anatomy diagrams; blank heart labeling worksheet; coronary artery distribution reference image from Egan's; case handout.Labeled heart diagram submitted at the end of class; all chambers, valves, great vessels, and major coronary arteries must be correctly labeled (90% accuracy) to pass.
10The Cardiac Cycle, Cardiac Output, and Hemodynamics37demoStudents will describe the events of the cardiac cycle in sequence, apply the cardiac output equation, and explain how changes in heart rate, stroke volume, preload, afterload, and contractility affect cardiac output and pulmonary perfusion.
  1. Instructor demonstration using a simulated waveform display or cardiac cycle animation, narrating each phase (isovolumetric contraction, ejection, isovolumetric relaxation, filling); students annotate a timing diagram with pressure and volume values.
  2. Calculation exercise: students use CO = HR × SV to solve five clinical problems involving bradycardia, fluid overload, and cardiogenic shock, then predict the pulmonary consequence of each change in cardiac output.
  3. Group scenario: students receive a hemodynamic profile card (heart rate, blood pressure, SpO2) for a simulated patient in early cardiogenic shock and collaboratively list the respiratory therapy interventions they could anticipate being ordered, citing the physiological rationale for each.
Cardiac cycle animation (software or projected video); timing diagram worksheet; scientific calculators; hemodynamic profile cards; Egan's Fundamentals of Respiratory Care.Five-problem calculation quiz on cardiac output plus a one-paragraph written rationale for the group scenario intervention; instructor scores using a rubric; minimum score of 80% required.
11Pulmonary Circulation, Ventilation-Perfusion Matching, and Shunt38labStudents will explain the distribution of ventilation and perfusion in an upright lung, calculate the ventilation-perfusion ratio, and distinguish between true shunt, dead space, and V/Q mismatch as causes of hypoxemia using case-based data.
  1. Instructor-led lab using a lung zone diagram and colored fluid flow models to visualize the three-zone model of pulmonary blood flow; students sketch West's zones and annotate how V/Q ratio varies from apex to base.
  2. Data analysis activity: students receive two pre-made data tables (one showing normal V/Q distribution, one showing lobar consolidation) and calculate average V/Q ratios, identify zones of dead space and shunt, and predict the resulting PaO2.
  3. Comparison exercise: students use the 100% oxygen test concept (from Egan's) to differentiate true shunt from V/Q mismatch on paper and write a one-sentence clinical implication for each distinction relevant to oxygen therapy planning.
West lung zone colored diagram; fluid flow demonstration model or equivalent visual aid; pre-made data tables; scientific calculators; Egan's Fundamentals of Respiratory Care; lab worksheet.Completed lab worksheet with correct V/Q calculations and accurate written distinction between shunt and V/Q mismatch; instructor reviews and scores using a rubric; 80% minimum to pass.
12Control of Ventilation, Breathing Patterns, and Clinical Correlations38theoryStudents will explain the roles of the medullary respiratory centers and peripheral and central chemoreceptors in regulating ventilation, predict how common respiratory and metabolic conditions alter breathing pattern and rate, and recognize at least six abnormal breathing patterns by name and description.
  1. Lecture and discussion on the Hering-Breuer reflex, central chemoreceptors responding to CSF pH, and peripheral chemoreceptors responding to PaO2; students complete a cause-and-effect flow chart showing how rising PaCO2 triggers increased ventilation step by step.
  2. Breathing pattern recognition drill: instructor displays descriptions and waveform tracings of Cheyne-Stokes, Kussmaul, Biot's, apneusis, and other patterns; students match each pattern to its name, typical clinical setting, and underlying physiological mechanism.
  3. Integrative case-based review: student groups receive a patient vignette (e.g., diabetic ketoacidosis, opioid overdose, brainstem injury) and must identify the expected breathing pattern, explain the chemoreceptor or neural mechanism responsible, and describe the role of the respiratory therapist in monitoring and managing that patient.
Egan's Fundamentals of Respiratory Care; breathing pattern waveform card set; cause-and-effect flow chart worksheet; integrative case vignette handouts; whiteboard.Breathing pattern matching quiz (10 items) plus evaluation of the group case presentation using a rubric; students must score 80% on the quiz and receive an acceptable rating on the case presentation to pass.
Assessments
AssessmentTypeWeightPass standardMethod & rubric
Cardiopulmonary A&P Knowledge ExaminationWritten exam25%Minimum score of 75% on a 100-item multiple-choice examinationA comprehensive written exam covering all lesson content including airway anatomy, lung mechanics, gas exchange, oxygen and CO2 transport, acid-base balance, cardiac anatomy and the cardiac cycle, V/Q matching, and control of ventilation. Questions are written in NBRC CRT/RRT examination style to familiarize students with the format and terminology they will encounter on the credentialing exam.
Standard met · Safety · Time · Quality/finish · Documentation
ABG Interpretation and Spirometry Skills DemonstrationSkills demonstration45%Student must correctly interpret 9 of 10 ABG cases and perform an acceptable spirometry maneuver with accurate percent-predicted calculation, as judged by a faculty evaluator using a standardized checklistThe student individually interprets 10 arterial blood gas cases using the four-step classification method and performs a live spirometry maneuver on a peer using proper infection-control technique, then verbally explains the results and their clinical significance to the evaluator.
Standard met · Safety · Time · Quality/finish · Documentation
Laboratory Skills LogLog15%All required lab worksheets submitted and signed off by the instructor; each worksheet must meet the 80% accuracy standard established in its respective lessonStudents maintain a cumulative log of all completed lab worksheets from the spirometry, mechanics of breathing, and V/Q matching lab sessions; the log demonstrates consistent engagement and accuracy across hands-on activities throughout the course.
Standard met · Safety · Time · Quality/finish · Documentation
Safety and Scope-of-Practice CheckSafety audit15%All eight safety and scope criteria must be rated satisfactory on the evaluator checklist; any unsatisfactory rating requires immediate remediation and re-check before the student may progressA faculty evaluator observes the student during a lab session and rates performance on eight specific criteria: proper hand hygiene before and after patient contact, correct use of personal protective equipment, proper spirometer calibration and disposal of single-use components, correct identification of the respiratory therapist's scope versus a physician's order, recognition of a clinical situation requiring escalation, and professional communication during the simulated patient interaction.
Standard met · Safety · Time · Quality/finish · Documentation
HLT-RESP80-03 Trade course

Mechanical Ventilation: Principles and Clinical Application

439 hr · $8,220 COMPLIMENTARY

Students develop comprehensive knowledge of mechanical ventilators used in adult, pediatric, and neonatal critical care, including the physics of gas flow, ventilator circuit assembly, mode selection, alarm management, and patient monitoring. Emphasis is placed on safe operation, recognizing patient-ventilator asynchrony, troubleshooting malfunctions, and applying evidence-based weaning protocols. Lesson content maps directly to NBRC CRT and RRT exam competency areas covering therapeutic procedures, equipment performance, and patient assessment.

Outcomes
Course text

Students develop comprehensive knowledge of mechanical ventilators used in adult, pediatric, and neonatal critical care, including the physics of gas flow, ventilator circuit assembly, mode selection, alarm management, and patient monitoring. Emphasis is placed on safe operation, recognizing patient-ventilator asynchrony, troubleshooting malfunctions, and applying evidence-based weaning protocols. Lesson content maps directly to NBRC CRT and RRT exam competency areas covering therapeutic procedures, equipment performance, and patient assessment.

How the course runs. 12 blocks: Physics of Ventilation: Gas Laws, Pressure, Flow, and Resistance; Ventilator Classification: Drive Mechanisms, Control Variables, and Cycling; Ventilator Circuit Assembly, Humidification, and Infection Control; Initiating Mechanical Ventilation: Initial Settings for Common Diagnoses; Ventilator Modes: Volume Control, Pressure Control, and Assist-Control; Advanced Modes: Pressure Support, CPAP, APRV, and NPPV; Alarm Management and Troubleshooting Patient-Ventilator Problems; Arterial Blood Gas Interpretation and Ventilator Parameter Adjustment; Monitoring the Mechanically Ventilated Patient: Hemodynamics, Mechanics, and Graphics; Weaning and Liberation from Mechanical Ventilation; Neonatal and Pediatric Ventilation Principles; Integrated Ventilator Simulation: Full Patient Management Scenarios.

What competent looks like. Identify and explain the functional components, drive mechanisms, and control systems of common adult and neonatal mechanical ventilators used in clinical settings. Select and justify appropriate ventilator modes, initial parameter settings, and alarm limits based on patient diagnosis, arterial blood gas results, and clinical status. Assemble, leak-test, and troubleshoot ventilator circuits, valves, and humidification systems according to manufacturer guidelines and infection-control standards. Recognize and respond to patient-ventilator asynchrony, ventilator-induced lung injury risk, and life-threatening alarm conditions within established scope of practice. Apply evidence-based spontaneous breathing trial and weaning protocols, documenting assessment findings and communicating recommendations to the clinical team. Demonstrate safe, professional practice throughout all ventilator procedures, maintaining patient safety and adhering to OSHA standards and facility infection-control policies.

Lessons · 12 blocks
#LessonHrTypeObjectiveActivitiesMaterialsCheck
1Physics of Ventilation: Gas Laws, Pressure, Flow, and Resistance32theoryStudents will accurately apply Boyle's Law, Poiseuille's Law, and the concepts of compliance and resistance to explain how a mechanical ventilator moves gas into and out of the lungs.
  1. Lecture with worked numerical examples: students calculate how changes in airway radius affect resistance and required driving pressure using Poiseuille's relationship, recording results in a structured note-taking guide.
  2. Small-group card-sort activity in which students match clinical scenarios (e.g., bronchospasm, pneumothorax, ARDS) to the underlying change in compliance or resistance and predict the resulting pressure-volume effect.
  3. Graphing exercise using sample ventilator waveform printouts: students label pressure, flow, and volume scalars and identify the inspiratory pause, expiratory phase, and auto-PEEP artifact on each waveform.
Whiteboard, respiratory therapy textbook (e.g., Pilbeam's Mechanical Ventilation), ventilator waveform printout packet, scientific calculators, compliance/resistance worksheetShort written quiz of 20 questions covering gas law calculations and waveform identification; minimum passing score 75%.
2Ventilator Classification: Drive Mechanisms, Control Variables, and Cycling35theoryStudents will correctly classify ventilators by drive mechanism, control variable (volume, pressure, flow, time), and cycle mechanism using the taxonomy described in current respiratory care references.
  1. Instructor-led lecture with annotated diagrams showing pneumatically driven versus electrically driven ventilators and the internal components that determine breath delivery; students complete a classification matrix in real time.
  2. Paired comparison exercise: students examine specification sheets for three common ICU ventilators and identify each ventilator's control variable, trigger mechanism, and cycle variable, then defend their answers to the class.
  3. Case-based discussion in which the instructor presents four patients with different diagnoses and students identify which control variable strategy (volume control versus pressure control) better protects each patient, citing physiological rationale.
Ventilator specification sheets, classification matrix worksheet, respiratory care reference textbook, projector slidesOral questioning during class with documented instructor observation; all students must correctly classify at least four of five presented ventilators to proceed.
3Ventilator Circuit Assembly, Humidification, and Infection Control38labStudents will assemble and leak-test a complete ventilator circuit with heated humidifier or heat-moisture exchanger, meeting manufacturer specifications and infection-control standards within a 10-minute time limit.
  1. Instructor demonstration of full circuit assembly on a bench ventilator trainer, narrating each step and identifying common assembly errors such as reversed one-way valves and condensate traps incorrectly positioned.
  2. Students work in pairs to assemble three different circuit configurations (adult heated humidifier, adult HME, neonatal circuit), performing a manual occlusion leak test on each and documenting results on a circuit-check form.
  3. Infection-control drill: students practice donning and removing appropriate PPE, handling single-use versus reusable components, and disposing of used circuit materials per standard precautions, with an instructor evaluating technique.
Bench ventilator trainers, adult and neonatal ventilator circuits, heated humidifiers, heat-moisture exchangers, circuit-check forms, PPE (gloves, mask, gown), biohazard disposal containers, manufacturer assembly manualsSkills checklist with 18 critical steps; students must complete all safety-critical steps correctly and achieve at least 15 of 18 total steps to pass; assembly must be completed within the time limit.
4Initiating Mechanical Ventilation: Initial Settings for Common Diagnoses40theoryStudents will select and justify initial ventilator settings—including tidal volume, respiratory rate, FiO2, PEEP, and flow—for patients with ARDS, COPD exacerbation, post-operative respiratory failure, and neuromuscular disease, referencing established clinical guidelines.
  1. Lecture covering lung-protective ventilation strategy (low tidal volume per ideal body weight, plateau pressure targets) with instructor walking through the ARDSNet protocol framework as a practical example of evidence-based parameter selection.
  2. Students individually complete a four-case worksheet, calculating ideal body weight from height, determining tidal volume targets, and selecting initial rate and FiO2 for each diagnosis; answers are reviewed and corrected as a class.
  3. Think-pair-share discussion on the physiological rationale for different PEEP strategies in obstructive versus restrictive disease, with students defending their reasoning using compliance and air-trapping concepts from Lesson 1.
ARDSNet protocol reference card, ideal body weight calculation chart, clinical scenario worksheet, respiratory care textbook, whiteboardGraded four-case worksheet; students must correctly calculate tidal volume and justify at least three of four complete settings sets with a score of 75% or higher.
5Ventilator Modes: Volume Control, Pressure Control, and Assist-Control40demoStudents will demonstrate correct setup and verification of volume-control assist-control, pressure-control assist-control, and SIMV modes on a full-featured training ventilator, confirming delivered parameters match ordered settings within acceptable clinical tolerance.
  1. Instructor demonstrates setting up each mode on the training ventilator connected to a test lung, explaining the graphical waveform changes displayed on the ventilator screen as each control knob or menu selection is changed.
  2. Students rotate through three stations, each with a different training ventilator and a written order sheet; they program the ordered mode and settings, then verify delivered tidal volume and pressure readings with an instructor observing.
  3. Class debrief using side-by-side waveform screenshots printed from each station's demonstration: students annotate differences in the pressure and flow curves between VC-AC and PC-AC and record implications for patient monitoring.
Training ventilators (minimum two models), test lungs with adjustable compliance and resistance, waveform screenshot printouts, ventilator order sheets, mode setup checklistMode setup checklist with 12 steps per mode; student must complete all safety-critical steps and at least 10 of 12 total steps correctly for each mode to pass the demonstration.
6Advanced Modes: Pressure Support, CPAP, APRV, and NPPV38demoStudents will explain the clinical indications, physiological mechanism, and patient monitoring requirements for pressure support ventilation, CPAP, APRV, and non-invasive positive pressure ventilation, and correctly configure each mode on a training ventilator.
  1. Lecture with animated graphics illustrating how pressure support augments patient-initiated breaths and how APRV uses extended inflation time to recruit alveoli; students sketch airway pressure waveforms for each mode in their notes.
  2. Hands-on station: students apply a properly fitted NPPV mask to a mannequin, connect it to the training ventilator set in BiPAP mode, confirm seal by observing waveforms, and adjust IPAP and EPAP to achieve a target tidal volume displayed on the test lung monitor.
  3. Case scenario group activity: given four clinical vignettes (acute hypoxemic failure, post-extubation stridor, sleep apnea exacerbation, late-ARDS weaning), student teams select and defend the most appropriate mode, presenting findings to the class.
Training ventilators, NPPV masks (multiple sizes), mannequin head form, test lungs, APRV reference guide, clinical vignette cards, projectorNPPV setup skills checklist with 10 steps and a 5-question mode-selection quiz; students must pass the checklist (8/10 steps correct) and score at least 4/5 on the quiz.
7Alarm Management and Troubleshooting Patient-Ventilator Problems40practiceStudents will correctly identify the cause and initiate the appropriate corrective action for at least eight common ventilator alarm conditions—including high peak pressure, low minute volume, apnea, and low FiO2—within 90 seconds per scenario.
  1. Instructor presents a structured troubleshooting algorithm (patient→circuit→ventilator) and uses video clips of real alarm sequences to walk students through systematic assessment, emphasizing that manual ventilation of the patient is the priority response when cause is unknown.
  2. Timed simulation exercise: the instructor or lab assistant programs 10 fault conditions into training ventilators (e.g., kinked circuit, disconnected O2 supply, patient biting tube, pneumothorax simulation via high-resistance test lung setting); students work individually to identify and correct each fault.
  3. Students document each scenario in an alarm-response log, recording the alarm type, possible causes considered, action taken, and the time elapsed; logs are reviewed for reasoning quality, not just correct outcome.
Training ventilators with programmable alarms, test lungs with adjustable settings, resuscitation bag-mask devices, alarm-response log forms, stopwatchAlarm-response log reviewed by instructor; student must correctly identify cause and initiate appropriate action for at least 8 of 10 scenarios and must perform manual ventilation correctly in any scenario where cause is initially unknown; graded pass/fail.
8Arterial Blood Gas Interpretation and Ventilator Parameter Adjustment38theoryStudents will interpret arterial blood gas results and recommend specific, quantified ventilator parameter adjustments to correct identified acid-base and oxygenation disturbances in a ventilated patient.
  1. Review lecture on systematic ABG interpretation (pH, PaCO2, HCO3, PaO2, SaO2) with emphasis on primary disorder identification, compensation determination, and the clinical relevance of each value to ventilator management decisions.
  2. Students complete a 15-case ABG interpretation worksheet, writing a diagnosis and a specific parameter change recommendation for each case (e.g., 'increase rate from 14 to 16 to reduce PaCO2 by approximately 5 mmHg'); responses are discussed and corrected as a group.
  3. Scenario-based role-play in which one student acts as the bedside RT reporting values and the other acts as the RT making adjustment recommendations; students then switch roles; instructor circulates and provides immediate feedback.
ABG interpretation worksheet (15 cases), acid-base nomogram, ventilator adjustment reference chart, respiratory care textbook chapter on ABGsGraded 15-case worksheet; students must correctly interpret disorder and provide a clinically reasonable adjustment recommendation for at least 12 of 15 cases (80%) to pass.
9Monitoring the Mechanically Ventilated Patient: Hemodynamics, Mechanics, and Graphics36labStudents will measure and record plateau pressure, calculate static compliance and airway resistance, and interpret pressure-volume and flow-volume loops displayed on a training ventilator to identify over-distension, air trapping, and secretion retention.
  1. Lab session: students perform an inspiratory hold maneuver on a training ventilator connected to a compliance-adjustable test lung, record peak and plateau pressures, and calculate static compliance using the formula; the instructor verifies calculation method.
  2. Ventilator graphics interpretation exercise: students examine printed pressure-volume loops showing a normal loop, a loop with over-distension (upper inflection point), and a loop with air trapping (flow not returning to zero); they annotate each abnormality and state the clinical implication.
  3. Small-group discussion of hemodynamic effects of positive pressure ventilation, including reduced venous return and right ventricular afterload increase; students complete a fill-in-the-blank diagram linking ventilator changes to cardiovascular effects.
Training ventilators with graphics capability, compliance-adjustable test lungs, printed P-V and F-V loop worksheets, compliance calculation worksheet, hemodynamic diagram handoutCompliance calculation checked for correct formula application and answer within ±5% of instructor-calculated value; loop annotation worksheet must correctly identify at least five of six labeled abnormalities to pass.
10Weaning and Liberation from Mechanical Ventilation36practiceStudents will apply a structured daily sedation interruption and spontaneous breathing trial protocol to simulated patient scenarios, documenting readiness criteria, trial conduct, and a pass or fail determination with clinical rationale.
  1. Lecture covering weaning readiness criteria (adequate oxygenation on acceptable FiO2 and PEEP, hemodynamic stability, patient effort, reversal of the cause of respiratory failure) and standard spontaneous breathing trial methods including T-piece and low-level pressure support.
  2. Students work through three paper-based patient scenarios, completing a weaning readiness checklist for each, determining whether an SBT should be initiated, and documenting SBT pass/fail criteria and next clinical steps on a structured weaning protocol form.
  3. Simulation exercise: using a training ventilator and a responsive mannequin setup, students conduct a 30-minute simulated SBT, monitoring respiratory rate, SpO2, heart rate, and patient comfort at 5-minute intervals and making a documented pass/fail determination at the end.
Weaning readiness checklists, SBT protocol forms, training ventilators, pulse oximeter, patient simulation mannequin or high-fidelity simulator if available, stopwatchWeaning protocol form reviewed by instructor for completeness and correct clinical reasoning; student must correctly apply readiness criteria and conduct the simulated SBT with appropriate monitoring intervals; passing standard is satisfactory completion of all protocol steps without unsafe omissions.
11Neonatal and Pediatric Ventilation Principles34theoryStudents will describe how neonatal and pediatric respiratory anatomy, physiology, and pathology (including RDS, BPD, and meconium aspiration) require modifications to ventilator parameter selection, circuit sizing, and monitoring compared to adult practice.
  1. Illustrated lecture on developmental differences in lung mechanics, oxygen consumption, and respiratory drive in neonates and children, including a comparison of neonatal ventilator circuits and the use of high-frequency oscillatory ventilation as a rescue strategy.
  2. Case comparison activity: students receive parallel adult and neonatal patient profiles with the same diagnosis (respiratory failure) and complete a side-by-side table identifying how tidal volume targets, rate ranges, PEEP levels, humidification requirements, and alarm limits differ.
  3. Guest speaker session (NICU respiratory therapist, in-person or recorded video) discussing real clinical challenges in neonatal ventilation, followed by a structured Q&A in which students ask at least one prepared question each based on prior lesson content.
Neonatal ventilator reference guide, neonatal circuit samples, case comparison worksheet, projector, guest speaker or recorded presentationCompleted side-by-side comparison table reviewed by instructor; students must correctly differentiate at least eight of ten parameter categories between adult and neonatal settings to pass.
12Integrated Ventilator Simulation: Full Patient Management Scenarios32labStudents will manage a complete mechanically ventilated patient scenario from initial setup through alarm response, ABG-driven adjustment, and SBT determination, demonstrating safe, competent, and independent performance across all prior course competencies.
  1. High-fidelity or mid-fidelity simulation session: each student individually manages a 40-minute scenario (e.g., intubated ARDS patient developing a circuit disconnection, then receiving an ABG requiring parameter adjustment, then being assessed for weaning readiness), with the instructor observing using a comprehensive performance checklist.
  2. Following the scenario, each student participates in a structured debriefing with the instructor, reviewing decision points, explaining the rationale for each action taken, and identifying one area for improvement; the debriefing is documented.
  3. Students write a brief clinical note (SOAP format) summarizing the simulated patient's ventilator management during the scenario, including assessment findings, interventions, patient response, and plan, reflecting professional documentation standards.
High- or mid-fidelity patient simulator with ventilator interface, training ventilator, comprehensive performance checklist, ABG result cards, SOAP note template, debriefing guideComprehensive performance checklist scored by instructor; student must complete all safety-critical steps correctly and achieve at least 80% of total checklist items; SOAP note must be complete and clinically accurate to pass the lab.
Assessments
AssessmentTypeWeightPass standardMethod & rubric
Ventilator Theory Knowledge ExaminationWritten exam25%Minimum score of 75% (75 of 100 questions correct)A 100-item multiple-choice examination covering gas physics, ventilator classification, mode selection rationale, ABG interpretation, alarm management, and neonatal considerations, aligned with NBRC CRT and RRT exam content areas for therapeutic procedures and equipment performance. Students who score below 75% must complete a targeted remediation plan and retake an alternate form of the exam before advancing to clinical practicum.
Standard met · Safety · Time · Quality/finish · Documentation
Ventilator Setup and Management Skills DemonstrationSkills demonstration45%All safety-critical steps rated satisfactory; overall checklist score of 80% or higher; completed within the allotted time limitThe student independently performs a complete ventilator setup on a training ventilator connected to a test lung, including circuit assembly, mode programming to a written order, alarm limit configuration, and a simulated response to one alarm condition presented by the evaluator. Performance is scored on a standardized skills checklist by the program instructor, directly mirroring the hands-on component expectations of NBRC clinical simulation examination sections.
Standard met · Safety · Time · Quality/finish · Documentation
Laboratory Procedure LogLog15%All 12 lab sessions documented; each entry rated satisfactory by the supervising instructor; no outstanding incomplete entries at course endStudents maintain a running laboratory log throughout the course, recording the objective, procedure performed, measurements or calculations obtained, findings, and a brief reflection on clinical application for each of the 12 lessons with a lab or practice component. The log demonstrates progressive skill development and accurate technical documentation, consistent with professional charting standards required for state licensure and employer competency verification.
Standard met · Safety · Time · Quality/finish · Documentation
Ventilator Safety and Infection Control Competency CheckSafety audit15%100% of critical safety behaviors demonstrated correctly; any critical failure requires immediate remediation and recheck before the student may continue lab activitiesA focused pass/fail safety evaluation conducted during Lesson 3 and revisited at the end of the course, assessing correct PPE use, circuit assembly sterile technique, pre-use ventilator safety check completion, correct response to a patient disconnect alarm (immediate manual ventilation), and proper disposal of used circuit materials. This check maps to OSHA bloodborne pathogen standards, the NBRC professional standards domain, and state respiratory therapy practice act requirements for safe equipment operation.
Standard met · Safety · Time · Quality/finish · Documentation
HLT-RESP80-04 Trade course

Oxygen Therapy

438 hr · $8,200 COMPLIMENTARY

This course develops the knowledge and hands-on competency required to safely assess, initiate, monitor, and discontinue supplemental oxygen therapy across the full range of low-flow and high-flow delivery systems used in acute, subacute, and home care settings. Students learn to select and troubleshoot oxygen delivery devices, interpret arterial blood gas and pulse oximetry data, and manage oxygen supply systems in accordance with evidence-based guidelines and established safety protocols. Lesson content maps directly to NBRC CRT and RRT exam domains covering therapeutic procedures, patient assessment, and equipment application.

Outcomes
Course text

This course develops the knowledge and hands-on competency required to safely assess, initiate, monitor, and discontinue supplemental oxygen therapy across the full range of low-flow and high-flow delivery systems used in acute, subacute, and home care settings. Students learn to select and troubleshoot oxygen delivery devices, interpret arterial blood gas and pulse oximetry data, and manage oxygen supply systems in accordance with evidence-based guidelines and established safety protocols. Lesson content maps directly to NBRC CRT and RRT exam domains covering therapeutic procedures, patient assessment, and equipment application.

How the course runs. 12 blocks: Oxygen Physiology and Clinical Indications; Oxygen Supply Systems: Cylinders, Liquid, and Concentrators; Low-Flow Oxygen Delivery Devices; High-Flow Oxygen Delivery Systems; Oxygen Delivery in Pediatric and Neonatal Patients; Pulse Oximetry and Non-Invasive Monitoring; Arterial Blood Gas Interpretation for Oxygen Therapy; Oxygen Therapy Hazards and Safety Protocols; Humidification and Aerosol Therapy with Oxygen; Home Oxygen Therapy and Patient Education; Titration, Weaning, and Discontinuation of Oxygen Therapy; Integrated Oxygen Therapy Clinical Scenarios and NBRC Exam Mapping.

What competent looks like. Select an appropriate oxygen delivery device and flow rate based on patient diagnosis, acuity, and target SpO2/PaO2 goals using current clinical guidelines. Correctly set up, apply, and troubleshoot low-flow devices (nasal cannula, simple mask, partial re-breather, non-re-breather) and high-flow systems (air-entrainment masks, high-flow nasal cannula, oxygen hoods and tents) to deliver a prescribed FiO2. Perform and interpret pulse oximetry, capnography, and arterial blood gas results to evaluate the adequacy of oxygen therapy and recommend titration or discontinuation. Identify and mitigate oxygen-therapy hazards including oxygen toxicity, absorption atelectasis, suppression of hypoxic drive, fire risk, and cylinder handling dangers in compliance with OSHA and NFPA standards. Manage bulk liquid oxygen systems, high-pressure cylinders, and oxygen concentrators, demonstrating correct safety procedures for storage, transport, and labeling. Document oxygen therapy orders, patient responses, and equipment checks accurately in a simulated medical record, demonstrating professional communication consistent with state RT scope of practice.

Lessons · 12 blocks
#LessonHrTypeObjectiveActivitiesMaterialsCheck
1Oxygen Physiology and Clinical Indications36theoryGiven patient scenarios, the student will state the physiological rationale for supplemental oxygen and identify accepted clinical indications and contraindications according to current AARC Clinical Practice Guidelines.
  1. Lecture and annotated diagram exercise tracing the path of oxygen from atmosphere to mitochondria, emphasizing the oxygen-hemoglobin dissociation curve and its clinical implications.
  2. Small-group case analysis: students review four patient vignettes (COPD exacerbation, acute MI, carbon monoxide poisoning, post-op hypoxemia) and justify whether supplemental oxygen is indicated, using SpO2 and PaO2 target ranges from evidence-based guidelines.
  3. Q&A quiz game in which pairs of students challenge each other on indications, target saturations, and the physiological difference between hypoxemia and hypoxia.
Egan's Fundamentals of Respiratory Care (current edition), AARC Clinical Practice Guidelines for Oxygen Therapy in Adults, whiteboard, printed case vignettes, oxygen-hemoglobin dissociation curve reference cards10-question multiple-choice quiz on physiology and indications; pass mark 75%.
2Oxygen Supply Systems: Cylinders, Liquid, and Concentrators36demoThe student will demonstrate safe handling, labeling, storage, and duration-of-flow calculations for compressed gas cylinders, liquid oxygen systems, and oxygen concentrators in accordance with OSHA and NFPA guidelines.
  1. Instructor-led demonstration of E-cylinder and H-cylinder components (valve, regulator, flowmeter, Bourdon gauge), proper securing, and wrench use, followed by student return demonstration with direct observation.
  2. Calculation workshop: students use the cylinder duration formula (cylinder pressure × cylinder factor ÷ flow rate) to compute remaining supply time for multiple cylinder sizes and flow rates, checking answers against an answer key.
  3. Lab station rotation: students inspect a liquid oxygen home unit and a portable oxygen concentrator, identify alarms, verify purity indicator function, and complete a written equipment checklist.
E-cylinders and H-cylinders, regulators, flowmeters, cylinder wrenches, safety chain brackets, liquid oxygen unit (portable and stationary), oxygen concentrator with alarm panel, NFPA 99 summary handout, cylinder duration formula reference cardsStudent correctly completes all steps on a cylinder-handling skills checklist and achieves 100% on the safety-critical steps (securing, no-oil rule, crack-before-attach, valve-off when not in use); calculation worksheet scored at 80% or above.
3Low-Flow Oxygen Delivery Devices40labThe student will set up and apply nasal cannula, simple mask, partial re-breather mask, and non-re-breather mask on a manikin, selecting the correct flow rate to achieve a specified FiO2 range for each device.
  1. Instructor demonstration of each device with side-by-side FiO2 range table review; students annotate a blank table from memory and compare with reference.
  2. Paired practice: each student sets up and applies all four devices on a head-form manikin while verbally stating the flow rate and expected FiO2 range; partner uses a checklist to evaluate technique.
  3. Troubleshooting drill: instructor pre-sets six common problems (displaced cannula prong, collapsed reservoir bag, kinked tubing, incorrect flow, missing humidifier water, cracked mask seal) and students identify and correct each within a timed station rotation.
Adult head-form manikins, nasal cannulas (adult and pediatric), simple masks, partial re-breather masks, non-re-breather masks, bubble humidifiers, flowmeters, FiO2 reference table, troubleshooting checklist, stopwatchSkills checklist scored by instructor; student must pass all critical steps (correct flow rate, proper fit, reservoir bag inflated on NRB) and achieve 80% overall; troubleshooting drill: 5 of 6 problems identified and corrected correctly.
4High-Flow Oxygen Delivery Systems40labThe student will assemble and set a Venturi (air-entrainment) mask, aerosol mask with large-volume nebulizer, and a high-flow nasal cannula (HFNC) system to deliver a prescribed, consistent FiO2 at specified flow rates and temperatures.
  1. Lecture with live demonstration: instructor explains the Bernoulli/Venturi principle, entrainment ratios, and total flow calculation; students calculate total flows for four Venturi jet settings and verify on a gas blender.
  2. HFNC assembly lab: students set up a heated-wire HFNC circuit (humidifier, heated tubing, prong sizing), dial in a target FiO2 and flow, and document readings on an equipment log.
  3. Scenario practice: given written patient scenarios with varying SpO2 targets and work-of-breathing descriptions, student pairs select and configure the most appropriate high-flow device and defend the choice to the instructor in a two-minute verbal explanation.
Venturi masks with multiple jet entrainment adaptors, large-volume nebulizers, air-oxygen blenders, HFNC unit with heated humidifier and heated-wire circuit (adult and infant sizes), oxygen analyzer, test lung, scenario cards, equipment log formsInstructor-scored setup checklist for each device type (Venturi, LVN/aerosol, HFNC); pass mark 80% with zero errors on FiO2 setting and circuit assembly; total-flow calculations graded at 80% accuracy.
5Oxygen Delivery in Pediatric and Neonatal Patients36demoThe student will describe the anatomical and physiological differences that affect oxygen delivery in neonates and children, and correctly set up an oxygen hood, oxygen tent, and properly sized pediatric mask for a simulated infant and child patient.
  1. Lecture comparing neonatal and pediatric airway anatomy, respiratory rates, and developmental SpO2 norms; students complete a comparison chart.
  2. Instructor-led demonstration of oxygen hood assembly with flow rate selection to prevent CO2 accumulation; students practice setup on an infant manikin and measure flow with a flowmeter to meet the minimum flush recommendation.
  3. Scenario role-play: one student plays the therapist, another narrates vital signs of a pediatric patient in mild respiratory distress; therapist selects device, sizes appropriately, and documents the intervention on a simulated physician order sheet.
Infant and pediatric manikins, oxygen hoods (various sizes), pediatric oxygen tent, pediatric nasal cannulas, pediatric masks, infant flowmeter, simulated physician orders, pediatric SpO2 target reference card, Egan's Fundamentals (pediatric chapters)Practical skills check: instructor observes setup and sizing for oxygen hood and pediatric mask; checklist pass mark 80% with zero errors on minimum flow rate to flush hood; written scenario response graded at 75%.
6Pulse Oximetry and Non-Invasive Monitoring36practiceThe student will obtain an accurate SpO2 reading, identify sources of artifact and error, and interpret SpO2 trends in conjunction with patient clinical signs to make a documented oxygen titration recommendation.
  1. Lab exercise: students apply pulse oximeter probes to their own finger and to a simulation arm, introduce controlled variables (motion, nail polish simulator, vasoconstriction model, poor perfusion state) and document how each affects waveform quality and SpO2 reading.
  2. Case interpretation exercise: students receive eight printed patient strips showing SpO2 trends alongside heart rate, respiratory rate, and brief history; they write a one-paragraph recommendation for each case (maintain, titrate up, titrate down, or escalate care).
  3. Peer teaching: each student prepares a two-minute explanation of one SpO2 error source (assigned randomly) and presents to the group, fielding one question from classmates.
Pulse oximeters (finger, ear, and pediatric probes), simulation arm with perfusion control, printed SpO2 trend strips, clinical scenario packets, Egan's Fundamentals (monitoring chapter), AARC pulse oximetry guideline summaryCase interpretation exercise graded with answer rubric; pass mark 75%; instructor observation of probe placement and artifact identification during lab: all critical steps correct (waveform assessment, site selection, documentation) required to pass.
7Arterial Blood Gas Interpretation for Oxygen Therapy40theoryThe student will apply a systematic four-step ABG interpretation method to classify acid-base status and oxygenation, and use PaO2 and PaO2/FiO2 ratio results to adjust oxygen therapy orders in simulated clinical scenarios.
  1. Lecture and guided note-taking on ABG normal values, the four-step method (pH → PaCO2 → HCO3 → PaO2), and clinically significant thresholds; students practice the method on 10 instructor-solved examples.
  2. Independent ABG interpretation drill: students receive 15 ABG result cards and classify each, then identify whether oxygen therapy should be initiated, increased, decreased, or discontinued based on PaO2 and clinical context.
  3. Group simulation: instructor reads aloud a progressive patient scenario with serial ABG values; students call out titration decisions in real time and document them on a flow sheet, then debrief as a class.
ABG normal values reference card, 15-card ABG drill set, simulated flow sheet, calculator, Egan's Fundamentals (ABG chapter), AARC Clinical Practice Guideline for ABG sampling20-question written ABG interpretation test (classification and therapy recommendation); pass mark 75%; all critical safety thresholds (severe hypoxemia, life-threatening acidosis) must be identified correctly to pass.
8Oxygen Therapy Hazards and Safety Protocols36theoryThe student will identify the physiological hazards of oxygen therapy—including oxygen toxicity, absorption atelectasis, and suppression of hypoxic drive—and apply OSHA and NFPA fire-safety precautions specific to oxygen-enriched environments.
  1. Case-based lecture: instructor presents documented clinical cases illustrating each hazard; students complete a hazard identification worksheet naming the mechanism, at-risk patient population, prevention strategy, and monitoring parameter for each.
  2. NFPA/OSHA scenario drill: students examine photographs of six simulated hospital room setups containing planted safety violations (open flame source near oxygen, unsecured cylinder, no-smoking sign absent, incorrect cylinder labeling); students list all violations found and cite the relevant safety rule.
  3. Debate exercise: small groups argue the risks versus benefits of liberal versus conservative oxygen targets in COPD, drawing on evidence-based guidelines, then summarize their evidence in writing.
OSHA Hazard Communication standard summary, NFPA 99 oxygen safety summary, printed clinical case studies, hazard identification worksheet, room-setup photographs, Egan's Fundamentals (oxygen hazards chapter)Hazard worksheet reviewed by instructor: pass mark 75%; safety-violation scenario drill: student must correctly identify all fire-safety violations to pass the safety component (100% on fire/explosion hazards required).
9Humidification and Aerosol Therapy with Oxygen36labThe student will set up and operate bubble humidifiers, heated passover humidifiers, and large-volume nebulizers, verifying adequate humidity output and troubleshooting device malfunctions during oxygen delivery.
  1. Instructor demonstration of humidity physiology and the clinical threshold for adding humidification to oxygen therapy; students chart indications by flow rate and device type on a decision tree.
  2. Equipment assembly lab: students set up bubble humidifier, heated passover humidifier, and LVN with air-oxygen blender on a manikin airway, document water level, temperature (where applicable), and FiO2 with an oxygen analyzer.
  3. Troubleshooting stations: instructor creates four faults (no bubbling in humidifier, water level below minimum, heater alarm active, nebulizer not producing aerosol); students rotate and document fault, cause, and corrective action on a log sheet.
Bubble humidifiers, heated passover humidifiers, large-volume nebulizers, air-oxygen blenders, oxygen analyzers, temperature probes, manikin with tracheostomy adapter, troubleshooting log sheets, Egan's Fundamentals (humidity therapy chapter)Equipment assembly checklist scored by instructor; pass mark 80%; troubleshooting log: all four faults must be correctly identified and resolved to pass.
10Home Oxygen Therapy and Patient Education30practiceThe student will assess a simulated home oxygen patient for prescription compliance and safety, conduct a structured education session covering device use, energy conservation, and fire precautions, and complete a home oxygen documentation form.
  1. Role-play in pairs: one student acts as home oxygen patient with scripted misunderstandings (running the concentrator near curtains, removing cannula during exertion); the other student identifies problems and provides corrective education using plain-language teach-back method.
  2. Documentation exercise: students complete a sample Certificate of Medical Necessity and a home oxygen therapy log reflecting patient-reported hours of use, SpO2 readings, and equipment function, then compare with a model answer.
  3. Discussion and Q&A on CMS coverage criteria for home oxygen (general concepts without specific numeric thresholds students must memorize for the credential exam), insurance documentation requirements, and discharge planning communication.
Portable oxygen concentrator, liquid oxygen portable unit, nasal cannula kits, home oxygen documentation forms, Certificate of Medical Necessity sample, patient education brochure (AARC or equivalent), teach-back evaluation formInstructor-observed teach-back session evaluated on patient education checklist; pass mark 80%; documentation form graded for completeness and accuracy at 75%.
11Titration, Weaning, and Discontinuation of Oxygen Therapy36practiceGiven a series of clinical scenarios, the student will follow a structured protocol to titrate, wean, and discontinue supplemental oxygen therapy while monitoring for patient deterioration and documenting each decision step.
  1. Protocol analysis exercise: students read two evidence-based oxygen titration protocols (one for acute care, one for home/subacute) and create a flowchart summarizing decision points and triggers.
  2. Simulation-based weaning drill: using a high-fidelity or task-trainer manikin with adjustable SpO2 output, students titrate flow in response to instructor-controlled SpO2 and clinical sign changes, documenting each change on a therapy flow sheet.
  3. Written case debrief: students review a completed case (initial presentation through weaning and discharge) and write a one-page clinical narrative justifying each oxygen therapy decision, referencing the relevant guideline.
Simulation manikin with SpO2 control or task trainer, SpO2 monitor, oxygen delivery devices, therapy flow sheets, printed protocols, clinical case packet, Egan's Fundamentals (oxygen weaning section)Simulation performance scored on titration checklist; pass mark 80% with zero errors in recognizing and responding to a simulated critical desaturation event; written case narrative graded on a rubric at 75%.
12Integrated Oxygen Therapy Clinical Scenarios and NBRC Exam Mapping36practiceThe student will apply all prior oxygen therapy knowledge and skills to solve complex, integrated clinical scenarios that mirror the format and content areas of the NBRC CRT and RRT credentialing examinations.
  1. NBRC content-mapping exercise: students receive the NBRC Examination Detailed Content Outline and highlight every item addressed in this course, then self-assess confidence level for each item on a 1-3 scale and create a personal review plan.
  2. Full-length integrated simulation: students rotate through six manikin-based stations (adult COPD, pediatric croup, post-op atelectasis, CO poisoning, neonatal oxygen hood, home discharge planning) completing a timed assessment at each station.
  3. Debriefing and peer review: after simulation, students swap their completed documentation with a peer, cross-grade using an answer key, identify knowledge gaps, and record them on a personal remediation tracking sheet.
NBRC Examination Detailed Content Outline (current), all oxygen delivery devices from prior lessons, simulation manikins (adult, pediatric, neonatal), six station scenario packets, documentation forms, answer keys, remediation tracking sheetSimulation station checklist: student must pass at least 5 of 6 stations at 80% each; any station below 80% triggers mandatory remediation before course final; NBRC self-assessment submitted and reviewed by instructor.
Assessments
AssessmentTypeWeightPass standardMethod & rubric
Oxygen Therapy Knowledge ExamWritten exam25%75% correct (38 of 50 items); all patient-safety critical items must be answered correctlyA 50-item multiple-choice examination covering oxygen physiology and indications, ABG interpretation, device selection and FiO2 ranges, hazard identification, supply system calculations, and monitoring concepts, aligned to NBRC CRT and RRT exam content domains. Students have 90 minutes to complete the exam; any item addressing a life-threatening hazard or critical dosing decision that is answered incorrectly triggers automatic remediation regardless of total score.
Standard met · Safety · Time · Quality/finish · Documentation
Oxygen Delivery Skills DemonstrationSkills demonstration45%80% overall on the skills checklist; 100% on all items flagged as safety-critical (fire hazards, cylinder securing, NRB reservoir inflation, HFNC circuit integrity)The student sets up and applies, without assistance, one low-flow device and one high-flow device assigned randomly by the instructor, and correctly responds to one instructor-introduced equipment fault within a 15-minute timed evaluation. Performance is scored on a standardized skills checklist by the instructor; any safety-critical step failure (e.g., failure to secure an oxygen cylinder, ignoring a flat NRB reservoir bag) results in an immediate fail with mandatory remediation before re-attempt.
Standard met · Safety · Time · Quality/finish · Documentation
Laboratory LogLog15%All 12 lab session entries present and complete; average entry score of 75% on accuracy and clinical reasoning rubric; equipment troubleshooting sections 100% completeStudents maintain a cumulative laboratory log throughout the course, recording setup parameters, observed readings (SpO2, FiO2, temperature, flow rates), troubleshooting actions, and a brief clinical rationale for each lab session. Logs are collected at course end and reviewed by the instructor for accuracy of recorded data, completeness of troubleshooting documentation, and quality of clinical reasoning notes; missing or fabricated entries result in a failing grade for that entry.
Standard met · Safety · Time · Quality/finish · Documentation
Oxygen Safety CheckSafety audit15%100% on all safety-critical behaviors; any single critical failure results in immediate failure of the check and mandatory remediation before course completionA direct-observation safety audit in which the instructor evaluates the student on: correct cylinder handling and storage, accurate reading and response to an oxygen analyzer alarm, identification of all NFPA fire-safety violations in a staged room setup, and proper documentation of a simulated oxygen-related incident. This check is pass/fail with no partial credit on safety-critical items; it must be passed before the student may progress to the Airway Management course.
Standard met · Safety · Time · Quality/finish · Documentation
HLT-RESP80-05 Trade course

Airway Management

438 hr · $8,200 COMPLIMENTARY

This course develops the knowledge and hands-on skills required to assess, establish, and maintain a patent airway in patients across the lifespan, from basic positioning and suctioning to advanced artificial airway placement and management. Students practice on high-fidelity manikins and airway trainers under instructor supervision before applying skills in simulated clinical scenarios. Lessons map directly to NBRC CRT and RRT exam content areas covering patient assessment, airway establishment, and airway clearance techniques.

Outcomes
Course text

This course develops the knowledge and hands-on skills required to assess, establish, and maintain a patent airway in patients across the lifespan, from basic positioning and suctioning to advanced artificial airway placement and management. Students practice on high-fidelity manikins and airway trainers under instructor supervision before applying skills in simulated clinical scenarios. Lessons map directly to NBRC CRT and RRT exam content areas covering patient assessment, airway establishment, and airway clearance techniques.

How the course runs. 12 blocks: Airway Anatomy and Physiology Review; Airway Assessment and Difficult Airway Prediction; Basic Airway Adjuncts: OPA, NPA, and Bag-Mask Ventilation; Supraglottic Airway Devices; Endotracheal Intubation: Principles and Equipment; Orotracheal Intubation Skills Lab; Nasotracheal Intubation and Tube Management; Video Laryngoscopy and Difficult Airway Rescue; Airway Suctioning Techniques; Tracheostomy Care and Management; Airway Clearance Techniques and Secretion Management; Integrated Airway Management Simulation and Documentation.

What competent looks like. Correctly select and size airway adjuncts — including oral airways, nasal airways, supraglottic devices, and endotracheal tubes — for patients across the lifespan based on clinical assessment findings. Demonstrate safe orotracheal and nasotracheal intubation technique on adult and pediatric airway trainers, including tube confirmation with waveform capnography and auscultation, achieving correct placement on every attempt. Perform oropharyngeal, nasopharyngeal, and endotracheal suctioning using sterile technique while monitoring patient SpO2 and hemodynamic response, keeping suction time within evidence-based limits. Identify and respond to airway emergencies — including esophageal intubation, tube displacement, cuff failure, and difficult airway situations — using a systematic trouble-shooting protocol before each clinical rotation. Document airway interventions accurately in a patient care record, including tube size, depth, cuff pressure, and patient response, consistent with Joint Commission and NBRC charting standards. Apply infection control, standard precautions, and OSHA bloodborne-pathogen requirements to all airway management procedures, demonstrating zero critical safety errors on observed skills checks.

Lessons · 12 blocks
#LessonHrTypeObjectiveActivitiesMaterialsCheck
1Airway Anatomy and Physiology Review28theoryStudents will correctly identify upper and lower airway structures on anatomical diagrams and explain how structural variations in pediatric, geriatric, and obese patients affect airway management decisions.
  1. Label a series of unlabeled cross-section diagrams of the upper airway, larynx, and tracheobronchial tree, then peer-check answers against an anatomy atlas.
  2. Compare adult versus infant airway differences using side-by-side models and written analysis identifying at least five clinically significant anatomical distinctions.
  3. Complete a case-study worksheet on three patients — a toddler, a morbidly obese adult, and an elderly patient with limited neck mobility — predicting airway management challenges and selecting initial approach for each.
Anatomical airway models (adult/pediatric), Egan's Fundamentals of Respiratory Care textbook, anatomical atlas, printed diagram worksheets, whiteboardWritten diagram quiz: student correctly labels ≥90% of structures and answers all three case-study patient scenarios with clinically sound rationale; pass = 80% or higher.
2Airway Assessment and Difficult Airway Prediction32theoryStudents will apply standardized airway assessment tools — including the Mallampati classification, thyromental distance, and mouth opening evaluation — to simulated patient scenarios and identify features predicting a difficult airway.
  1. Practice Mallampati classification and mouth-opening measurement on fellow students and on standardized patient photographs, recording findings on a structured assessment form.
  2. Review and discuss a set of de-identified case photographs and brief histories; for each case, complete a difficult-airway prediction checklist and propose an airway strategy with rationale.
  3. Participate in a structured class discussion using NBRC-style multiple-choice questions on airway assessment, reviewing answer rationale after each question.
Standardized patient photographs, difficult-airway prediction checklists, Mallampati reference chart, tongue depressors, penlight, Egan's Fundamentals of Respiratory Care, NBRC content outlineScored assessment worksheet: student correctly classifies all four Mallampati images and flags ≥90% of difficult-airway indicators in case set; pass = 80% or higher.
3Basic Airway Adjuncts: OPA, NPA, and Bag-Mask Ventilation37.5labStudents will correctly size, insert, and remove an oropharyngeal airway (OPA) and a nasopharyngeal airway (NPA) on adult and pediatric manikins, and will deliver effective bag-mask ventilation with visible chest rise.
  1. Practice OPA sizing using the corner-of-mouth-to-earlobe landmark technique on at least three manikin sizes, then insert and confirm position without causing simulated trauma.
  2. Size and lubricate an NPA for an adult manikin, insert along the floor of the nasal passage, and confirm patency; then repeat for a pediatric manikin using appropriate sizing.
  3. Perform two-person bag-mask ventilation on a manikin with an instructor introducing simulated obstructions; student must correct mask seal, adjust head position, and maintain tidal volumes within the acceptable range for the patient size.
Adult and pediatric airway manikins, OPAs in assorted sizes, NPAs in assorted sizes, water-based lubricant, BVM resuscitators (adult and pediatric), disposable gloves, face shields, cleaning suppliesInstructor-observed skills checklist: student selects correct size, inserts device without critical error, and achieves visible bilateral chest rise on bag-mask ventilation on two consecutive attempts; pass = zero critical errors.
4Supraglottic Airway Devices32demoStudents will insert a laryngeal mask airway (LMA) and at least one other supraglottic device on an airway trainer, confirming placement by ventilation compliance and auscultation.
  1. Watch instructor demonstrate LMA insertion technique, cuff inflation, and confirmation steps on the airway trainer, taking structured notes on each step.
  2. In pairs, take turns inserting LMAs on the trainer; rotate through sizes for adult and large-child trainers and self-evaluate against a printed step checklist after each attempt.
  3. Participate in a scenario in which the manikin's 'teeth' are clenched (simulating limited mouth opening); troubleshoot device selection, switching to an alternative supraglottic device and documenting the clinical rationale.
Airway trainer (adult/pediatric), LMA devices (assorted sizes), King LT or i-gel as available, 10 mL syringe, stethoscope, BVM, step checklists, lubricant, glovesInstructor-observed insertion checklist on the airway trainer: student completes all required steps without critical error and confirms ventilation adequacy on two consecutive insertions; pass = zero critical errors.
5Endotracheal Intubation: Principles and Equipment33.5theoryStudents will identify each component of an endotracheal intubation kit, state the correct ET tube size selection formula for adults and children, and explain the physiological goals and hazards of laryngoscopy.
  1. Assemble and inspect an intubation kit — laryngoscope handles and blades, ET tubes of multiple sizes, stylet, syringe, tape — verifying function of each item and recording findings on an equipment checklist.
  2. Calculate ET tube sizes for a series of five patient scenarios using the standard formulas for adults and pediatric patients, then cross-check with the reference table in Egan's.
  3. Complete a structured reading assignment on the physiological stress response to laryngoscopy, then answer short-answer questions connecting hemodynamic changes to pre-oxygenation and suction readiness requirements.
Intubation trays with complete kit contents, Macintosh and Miller blades (sizes 0–4), ET tubes (assorted sizes), stylette, 10 mL syringe, Magill forceps, Egan's Fundamentals of Respiratory Care, equipment checklist formsWritten quiz on tube sizing formulas, blade selection rationale, and equipment function verification; pass = 80% or higher; any equipment safety error noted by instructor is reviewed before lab access is granted.
6Orotracheal Intubation Skills Lab47labStudents will perform orotracheal intubation on adult and pediatric manikins within the accepted time limit, confirming placement by waveform capnography, bilateral breath sounds, and absence of epigastric sounds.
  1. Each student performs a minimum of five adult intubations on the airway trainer under direct instructor observation, self-evaluating after each attempt using a video replay when available.
  2. Perform at least two pediatric manikin intubations using correct blade selection, tube sizing, and depth of insertion calculation; confirm placement using the standard triple-confirmation method.
  3. Participate in a simulated rapid sequence intubation (RSI) scenario in which the instructor calls out medication names and doses as given by a provider; student performs laryngoscopy and intubation after pre-oxygenation steps are verified.
Adult and pediatric intubation manikins/airway trainers, laryngoscope handles and blades, ET tubes (all sizes), waveform capnography simulator or actual colorimetric CO2 detector, stethoscope, BVM, tape, stylet, gloves, face shields, video laryngoscopy trainer if availableInstructor skills checklist: student achieves confirmed tracheal placement (waveform capnography + bilateral breath sounds + no epigastric sounds) within the acceptable attempt time on three consecutive trials with zero critical errors; pass = zero critical errors on each of three consecutive attempts.
7Nasotracheal Intubation and Tube Management28labStudents will perform blind nasotracheal intubation on an airway trainer and correctly secure an endotracheal tube, measure and record cuff pressure within the accepted therapeutic range, and identify signs of tube displacement.
  1. Demonstrate nasotracheal intubation technique on the adult airway trainer using breath-sound guidance to time tube advancement, repeating until consistent technique is achieved.
  2. Practice endotracheal tube securing using both tape and a commercial tube holder; measure cuff pressure with a manometer after each attempt and record whether pressure falls within the acceptable range per current evidence-based guidelines.
  3. Work through three written displacement scenarios — right main-stem intubation, accidental extubation, cuff leak — and write the assessment findings and corrective actions for each.
Adult airway trainer, nasotracheal tubes in multiple sizes, commercial tube holder, adhesive tape, cuff pressure manometer, stethoscope, gloves, lubricant, displacement scenario worksheetsSkills checklist: student advances tube on breath sounds, secures tube without critical error, and records cuff pressure within the accepted therapeutic range on two observed attempts; pass = zero critical errors.
8Video Laryngoscopy and Difficult Airway Rescue32demoStudents will operate a video laryngoscope to achieve glottic visualization on a manikin and describe a stepwise difficult-airway algorithm — including escalating rescue techniques — for a failed direct laryngoscopy scenario.
  1. Instructor demonstrates video laryngoscope setup, screen interpretation, and tube delivery technique; students replicate the procedure in sequence, with each step verified before progressing.
  2. Participate in a simulated 'cannot intubate' scenario in which direct laryngoscopy fails; student must verbalize and perform the next steps of the difficult airway algorithm in correct sequence, including calling for help.
  3. Role-play a cricothyrotomy decision point during a 'cannot intubate, cannot oxygenate' simulation, explaining the clinical indicators for the procedure and performing the preparatory steps on a task trainer.
Video laryngoscopy trainer (e.g., GlideScope or equivalent training model), ET tubes and stylets, difficult airway algorithm reference card, cricothyrotomy task trainer, BVM, gloves, instructor scenario cardsObserved scenario debrief: student correctly identifies failed-airway triggers, verbalizes each step of the escalation algorithm in proper sequence, and performs preparatory cricothyrotomy steps with no critical omissions; pass = zero critical omissions on algorithm sequence.
9Airway Suctioning Techniques37.5labStudents will perform oropharyngeal, nasopharyngeal, and endotracheal suctioning using correct sterile technique while monitoring patient SpO2 and keeping suction duration within evidence-based limits.
  1. Set up a sterile suction field and demonstrate open-technique endotracheal suctioning on a manikin with a simulated artificial airway in place; instructor calls out SpO2 readings and student responds appropriately.
  2. Practice closed-suction-catheter technique on a ventilated manikin scenario, adjusting suction pressure and catheter depth to avoid simulated mucosal trauma, and recording each parameter on the lab log.
  3. Complete a timed competency drill: perform oropharyngeal and nasopharyngeal suctioning back-to-back on the manikin, maintaining sterile field throughout, as the instructor introduces a simulated vasovagal response for the student to identify and manage.
Suction training manikin with artificial airway, suction machine with adjustable pressure, suction catheters (multiple sizes), open and closed suction catheter kits, sterile gloves, sterile saline, SpO2 simulator or pulse oximeter, lab log formsSkills checklist and lab log review: student maintains sterile technique throughout, keeps suction duration within evidence-based limits, and correctly identifies and responds to the simulated vasovagal response; pass = zero sterile technique breaks and zero critical safety errors.
10Tracheostomy Care and Management37.5labStudents will clean a tracheostomy stoma and inner cannula using aseptic technique, change tracheostomy ties without dislodging the tube, and manage a simulated tracheostomy emergency including accidental decannulation.
  1. Perform tracheostomy stoma care and inner cannula cleaning on a tracheostomy care trainer following a written protocol; document the procedure and findings on a patient care record form.
  2. Practice tracheostomy tie change with a partner acting as the second clinician, maintaining manual tube stabilization throughout to prevent accidental decannulation.
  3. Respond to an accidental decannulation simulation: student locates backup tube, maintains airway patency with BVM, and verbalizes escalation steps in the correct sequence within the allotted time.
Tracheostomy care trainer or manikin with trach site, tracheostomy tubes (multiple sizes and types), inner cannulas, trach ties and trach holder, sterile gauze, normal saline, hydrogen peroxide, gloves, BVM, patient care record formsInstructor checklist: student completes stoma care and tie change with aseptic technique and zero critical errors, and completes the accidental decannulation response with correct sequence in the allotted time; pass = zero critical errors.
11Airway Clearance Techniques and Secretion Management33.5practiceStudents will correctly perform and teach directed cough, huff cough, chest physiotherapy positioning, and high-frequency chest wall oscillation setup to achieve optimal secretion clearance in simulated patients with varying diagnoses.
  1. Demonstrate directed cough and active cycle of breathing techniques on a cooperative classmate who role-plays a post-surgical patient, then provide verbal coaching using teach-back to ensure the 'patient' can replicate the technique.
  2. Set up and apply a high-frequency chest wall oscillation (HFCWO) vest on a classmate, adjust frequency and pressure settings per a written physician order, and document the session parameters and patient response.
  3. Map secretion clearance technique selection to a set of five written patient diagnoses (COPD exacerbation, cystic fibrosis, post-thoracotomy, neuromuscular disease, and acute lobar atelectasis) and justify each choice in a written rationale, citing Egan's or current clinical practice guidelines.
HFCWO vest device (or training model), positioning wedges and pillows, written physician order forms, Egan's Fundamentals of Respiratory Care, AARC Clinical Practice Guidelines, teach-back evaluation formTeach-back evaluation: classmate (as patient) accurately demonstrates the coached technique after instruction; written rationale for all five diagnoses is graded with pass = 80% or higher and no clinically unsafe selections.
12Integrated Airway Management Simulation and Documentation59.5fieldStudents will manage a simulated critically ill patient through a complete airway emergency sequence — from assessment through intubation, post-intubation care, and handoff documentation — demonstrating integration of all course skills without instructor prompting.
  1. Complete a high-fidelity simulation scenario in teams of two, rotating roles; one student assesses and directs airway management decisions while the other performs procedural skills, then roles reverse for a second scenario with a different airway emergency.
  2. Write a complete post-procedure note for each simulation encounter using standard charting format, including tube size and depth, cuff pressure, confirmation methods, patient tolerance, and planned follow-up.
  3. Participate in an instructor-led debrief reviewing video or real-time observation notes from the simulation; each student identifies one strength and one area for improvement, and completes a corrective practice plan.
High-fidelity patient simulator or advanced airway manikin with monitoring capabilities, full intubation kit, suction equipment, waveform capnography, BVM, tracheostomy care supplies, documentation forms, video recording if availableSummative simulation rubric: student team completes the airway emergency sequence with zero critical patient safety errors, achieves confirmed tube placement, and submits a complete and accurate post-procedure note; pass = zero critical errors on simulation rubric and post-procedure note score ≥80%.
Assessments
AssessmentTypeWeightPass standardMethod & rubric
Airway Management Knowledge ExaminationWritten exam25%80% or higher (minimum 80 of 100 points)A 100-question written examination covering airway anatomy, patient assessment, equipment selection and sizing, intubation confirmation, suctioning parameters, tracheostomy care, secretion clearance techniques, and difficult-airway management principles, mapped to NBRC CRT and RRT exam content areas. Questions are in NBRC-style multiple-choice format; students must achieve 80% or higher to progress to the clinical practicum rotation.
Standard met · Safety · Time · Quality/finish · Documentation
Comprehensive Airway Skills DemonstrationSkills demonstration45%Zero critical errors on each of the four required proceduresStudents perform four skills — orotracheal intubation with triple confirmation, endotracheal suctioning with sterile technique, tracheostomy tie change with accidental-decannulation prevention, and bag-mask ventilation with OPA — on simulators while an instructor scores each step on a standardized checklist. Any critical safety error (esophageal intubation accepted without recognition, broken sterile field during suctioning, accidental decannulation without immediate response, or no chest rise during bag-mask) results in an automatic fail requiring remediation and retest.
Standard met · Safety · Time · Quality/finish · Documentation
Airway Management Lab LogLog15%All 12 required procedure entries present, complete, and accurate; overall score ≥80%Students maintain a running lab log throughout the course documenting every hands-on procedure performed, including device type and size, patient or manikin parameters, cuff pressure readings, suction pressure and duration, and self-evaluation notes. The log is reviewed by the instructor at mid-course and end-of-course; entries must demonstrate progressive competency, correct use of accepted parameter ranges, and professional documentation language.
Standard met · Safety · Time · Quality/finish · Documentation
Airway Safety and Infection Control CheckSafety audit15%Zero critical safety violations; 100% requiredA direct-observation safety audit conducted during the final simulation session in which the instructor specifically evaluates standard precautions compliance (correct PPE donning and doffing), sterile technique maintenance during suctioning, pre-use equipment checks, correct cuff pressure management, and appropriate response to a simulated airway emergency. This is a pass-fail check with a zero-tolerance threshold for critical safety violations; any critical violation requires immediate remediation before the student may enter the clinical practicum.
Standard met · Safety · Time · Quality/finish · Documentation
HLT-RESP80-06 Trade course

Respiratory Therapy Clinicals: Integrated Patient Care Practice

438 hr · $8,200 COMPLIMENTARY

Students apply previously learned respiratory therapy knowledge and skills in structured, simulated clinical scenarios that replicate real hospital and acute-care environments, integrating ventilator management, oxygen therapy, airway management, and patient assessment into cohesive patient care episodes. Emphasis is placed on clinical decision-making, interdisciplinary communication, documentation accuracy, and patient safety across a range of acuity levels. Lesson content maps directly to NBRC CRT and RRT exam domains and prepares students for supervised clinical practicum hours and state licensure practice standards.

Outcomes
Course text

Students apply previously learned respiratory therapy knowledge and skills in structured, simulated clinical scenarios that replicate real hospital and acute-care environments, integrating ventilator management, oxygen therapy, airway management, and patient assessment into cohesive patient care episodes. Emphasis is placed on clinical decision-making, interdisciplinary communication, documentation accuracy, and patient safety across a range of acuity levels. Lesson content maps directly to NBRC CRT and RRT exam domains and prepares students for supervised clinical practicum hours and state licensure practice standards.

How the course runs. 12 blocks: Clinical Roles, Workflow, and Professional Standards in Acute Care; Patient Assessment: History, Physical Examination, and Vital Signs; Arterial Blood Gas Interpretation in Clinical Context; Oxygen Delivery Systems: Clinical Selection and Troubleshooting; Mechanical Ventilator Management in Clinical Simulations; Airway Management: Intubation Assistance, Suctioning, and Artificial Airway Care; Pulmonary Function Testing and Interpretation in Practice; Chest Radiograph Interpretation for Respiratory Therapists; Neonatal and Pediatric Respiratory Care Fundamentals; Cardiopulmonary Emergency Response and BLS/ACLS Support; Clinical Documentation, Charting, and Interdisciplinary Communication; Integrated Clinical Simulation: Full-Shift Patient Care Episodes.

What competent looks like. Perform a complete respiratory patient assessment, including history, auscultation, vital signs, and pulse oximetry, and accurately document findings using standard clinical formats. Select, set up, and manage appropriate oxygen delivery systems and mechanical ventilators for simulated patients with acute and chronic respiratory conditions, adjusting parameters in response to patient data. Demonstrate safe, effective airway management techniques—including suctioning, artificial airway care, and emergency bag-valve-mask ventilation—within established scope of practice and infection-control standards. Interpret arterial blood gas results, basic pulmonary function data, and chest radiograph findings to formulate and justify evidence-based respiratory care plans. Communicate patient status and care plans clearly through verbal SBAR handoffs, written care notes, and interdisciplinary team participation in simulated clinical rounds. Identify and respond to simulated cardiopulmonary emergencies—including respiratory failure, tension pneumothorax signs, and cardiac arrest—applying current BLS and ACLS-support protocols within the respiratory therapist's scope.

Lessons · 12 blocks
#LessonHrTypeObjectiveActivitiesMaterialsCheck
1Clinical Roles, Workflow, and Professional Standards in Acute Care32theoryStudents will describe the respiratory therapist's scope of practice, departmental workflow, chain of command, and documentation obligations in acute-care settings, citing at least three professional and legal standards.
  1. Read and annotate excerpts from the AARC Clinical Practice Guidelines and state licensure scope-of-practice language, then produce a written summary of what a credentialed RT may and may not do independently.
  2. Map a typical RT shift schedule for a 200-bed community hospital, identifying each patient-contact task (rounds, stat calls, ventilator checks, treatments) and the corresponding documentation step.
  3. Role-play a chain-of-command scenario in which a student must escalate a physician order that appears unsafe, using the hospital's chain-of-command policy as a script guide, then debrief with the instructor.
AARC Clinical Practice Guidelines (current editions), sample hospital RT department policy manual, state licensing board scope-of-practice document, whiteboard, case-study handoutsWritten scope-of-practice summary graded with rubric; students must correctly identify at least 10 of 12 listed tasks as within or outside RT scope — 83% accuracy required to pass.
2Patient Assessment: History, Physical Examination, and Vital Signs38demoStudents will conduct a structured respiratory patient assessment on a simulated patient, collecting and accurately recording chief complaint, history, auscultation findings, respiratory rate, SpO2, blood pressure, and level of consciousness.
  1. Instructor demonstrates a head-to-toe respiratory assessment on a standardized patient (classmate or manikin), narrating each step; students document findings on a clinical assessment form and compare with instructor's reference findings.
  2. Students rotate in pairs through six assessment stations—each with a different simulated presentation (COPD exacerbation, asthma attack, post-op hypoventilation, pneumonia, pulmonary edema, normal baseline)—recording findings and identifying the primary respiratory problem at each station.
  3. Using recorded lung sound audio files (crackles, wheezes, rhonchi, stridor, diminished), students listen, identify, and document the correct descriptive term and its clinical significance on a matching worksheet.
Stethoscopes, pulse oximeters, blood pressure cuffs, clinical assessment forms, lung-sound audio library (AARC or equivalent), simulated patient manikin or standardized patient volunteer, assessment rubricInstructor-observed checklist during the six-station rotation; students must correctly identify the primary problem and document at least five of six assessment parameters accurately at four of six stations — 67% station pass rate with 83% parameter accuracy per station required.
3Arterial Blood Gas Interpretation in Clinical Context36labStudents will interpret a set of arterial blood gas results—classifying acid-base disturbance, oxygenation status, and degree of compensation—and recommend an appropriate ventilator or oxygen therapy adjustment for the clinical scenario provided.
  1. Work through 20 printed ABG case cards (each paired with a brief clinical scenario) using a stepwise interpretation protocol: pH → PaCO2 → HCO3 → PaO2 → compensation → oxygenation index; record final classification and recommended action for each.
  2. Lab exercise: using a blood gas simulator or educator-provided calibrated training device, students practice obtaining a simulated radial arterial sample using correct Allen's test technique, proper needle angle, and safe specimen handling before handing off to simulated lab.
  3. Small-group exercise: students receive a series of sequential ABGs from a mechanically ventilated patient whose settings change over four time points; groups chart the trend, identify whether the changes were appropriate, and present their analysis to the class.
ABG case cards (instructor-prepared, 20 cases), ABG interpretation protocol reference card, arterial blood gas simulator or training wrist model, antiseptic supplies, heparinized syringe trainer, arterial blood gas values reference table, AARC Clinical Practice Guideline for samplingWritten 20-case ABG quiz: students must correctly classify acid-base status and recommend an appropriate intervention for at least 16 of 20 cases — 80% required to pass.
4Oxygen Delivery Systems: Clinical Selection and Troubleshooting36practiceStudents will select the clinically appropriate oxygen delivery device for a given patient scenario, correctly set up and verify the device, and troubleshoot a minimum of four simulated equipment malfunctions.
  1. Given eight patient scenario cards (varying FiO2 need, diagnosis, ability to cooperate, and presence or absence of hypercapnic risk), students select the correct device from a displayed array—nasal cannula, simple mask, partial rebreather, non-rebreather, Venturi mask, high-flow nasal cannula—and justify the choice in writing.
  2. Hands-on setup rotation: each student individually assembles, connects to a flow meter, and verifies flow for five different devices under timed conditions, with instructor observing for correct liter-flow setting, proper humidification when indicated, and correct fit on a manikin head.
  3. Troubleshooting exercise: instructor pre-sets four malfunctions (disconnected tubing, incorrect flow rate, depleted humidifier water, non-rebreather bag not inflating) hidden within assembled devices; students diagnose and correct each malfunction in sequence, recording cause and corrective action.
Full array of oxygen delivery devices (nasal cannula, simple mask, partial rebreather, non-rebreather, Venturi mask with color-coded adapters, high-flow nasal cannula system), oxygen flow meters, bubble humidifiers, manikin head, scenario cards, troubleshooting log sheetInstructor checklist for setup rotation: all five devices must be assembled with correct flow and fit; plus four-malfunction troubleshooting sheet graded — students must pass assembly on at least four of five devices and correctly diagnose all four malfunctions to pass.
5Mechanical Ventilator Management in Clinical Simulations42labStudents will initiate, monitor, and adjust mechanical ventilator settings for simulated adult patients with acute respiratory failure, responding to clinical data changes to maintain safe ventilation and oxygenation targets.
  1. Using an adult mechanical ventilator (training mode or actual ICU ventilator on test lung), students initiate ventilation for three consecutive simulated patients—one with ARDS, one with COPD exacerbation, one post-op—selecting appropriate mode, tidal volume, rate, PEEP, and FiO2 based on written clinical data provided at the station.
  2. Alarm management drill: instructor triggers six pre-programmed alarms (high-pressure, low-pressure, apnea, low minute volume, high respiratory rate, low SpO2) on the ventilator; students must correctly identify each alarm, state the most likely cause, and perform the appropriate corrective action within 60 seconds per alarm.
  3. Weaning readiness assessment exercise: students receive a ventilator flow sheet with 12 hours of patient data and apply a standard spontaneous breathing trial protocol (using instructor-provided SBT criteria checklist) to determine whether each of three patients meets weaning criteria, documenting their rationale.
Adult mechanical ventilator with training lung (e.g., Puritan Bennett, Maquet, or equivalent training unit), ventilator circuit, PEEP valve, SBT criteria checklist, clinical scenario data sheets, ventilator flow sheet forms, alarm management reference cardSkills checklist for ventilator initiation (18 critical steps): students must perform at least 16 of 18 steps correctly on at least two of three patient scenarios; alarm drill: must correctly respond to at least five of six alarms within time limit — both components must be passed.
6Airway Management: Intubation Assistance, Suctioning, and Artificial Airway Care40practiceStudents will perform endotracheal tube cuff management, closed and open suctioning, and tracheostomy care on simulated airway models, and correctly assist a provider during a simulated oral intubation using proper positioning, equipment preparation, and monitoring.
  1. Airway care stations: each student independently performs (a) cuff pressure measurement and adjustment using a manometer on an intubated manikin, (b) open-suction technique on a tracheostomy manikin using sterile technique, and (c) closed in-line suctioning on a ventilated lung model—documenting findings and technique decisions at each station.
  2. Intubation assistance simulation: in teams of two, one student plays the role of the physician/CRNA inserting a laryngoscope and ETT into an intubation manikin while the partner (RT student) prepares the ETT with stylet and cuff checked, applies cricoid pressure on instruction, confirms tube placement by auscultation and waveform capnography, and secures the tube.
  3. Emergency scenario: a simulated unexpected extubation is staged; students must manage the patient's airway with bag-valve-mask ventilation, call for help using SBAR, and set up for re-intubation within a timed 3-minute window, with instructor scoring the response.
Intubation manikin (adult), tracheostomy care manikin, ventilated lung model with closed suction circuit, cuff pressure manometer, suction catheters (open and closed), sterile gloves, BVM with PEEP valve, laryngoscope with blades, endotracheal tubes (multiple sizes), stylet, colorimetric CO2 detector, waveform capnography display, securement tape/device, stopwatchThree-station skills checklist: students must pass all three airway care stations (100% of critical safety steps at each, zero unacceptable errors) and demonstrate correct BVM use during the emergency scenario; any critical safety error (unrecognized esophageal placement, non-sterile technique on suctioning) requires immediate remediation and retest.
7Pulmonary Function Testing and Interpretation in Practice30demoStudents will administer a spirometry maneuver following ATS/ERS acceptability criteria, coach a simulated patient to produce an acceptable effort, and classify the spirometry result as normal, obstructive, restrictive, or mixed using percent-predicted reference values.
  1. Instructor demonstrates the full spirometry procedure—device calibration with a 3-liter calibration syringe, patient coaching script, acceptability and repeatability criteria, and result printout interpretation—while students take structured notes using a provided observation guide.
  2. Students each perform the complete spirometry procedure on a classmate acting as the patient, including pre-test contraindication screening, coaching three acceptable FVC maneuvers, and printing or recording results; peer evaluators use the ATS/ERS acceptability checklist to score each student's coaching and technique.
  3. Interpretation exercise: students receive eight printed spirometry reports (with accompanying brief histories) and classify each as normal, obstructive, restrictive, or mixed pattern, note severity using percent-predicted FEV1 or FVC, and list two possible diagnoses consistent with the pattern.
Diagnostic spirometer with calibration syringe, disposable mouthpieces and filters, nose clips, ATS/ERS spirometry standards reference (current edition), percent-predicted reference value table, eight printed spirometry case reports, observation guide worksheet, acceptability checklistPeer and instructor-scored ATS/ERS acceptability checklist for performed spirometry (minimum two acceptable maneuvers meeting start-of-test and end-of-test criteria); interpretation exercise graded — must correctly classify at least seven of eight reports — both required to pass.
8Chest Radiograph Interpretation for Respiratory Therapists30theoryStudents will systematically review a chest radiograph using a standard structured approach and identify findings relevant to respiratory care—including ETT position, pneumothorax, pulmonary edema, consolidation, and hyperinflation—in at least 80% of cases presented.
  1. Instructor-led gallery walk: 10 chest radiographs posted around the room (or displayed digitally); students rotate with a structured review checklist (ABCDE or equivalent) and annotate each image, then class reviews findings together with instructor narration.
  2. Focused drill on ET tube and line placement: students examine 12 radiographs showing ETT positions ranging from correct to right mainstem intubation to esophageal placement (when visible), marking ideal vs. problematic placement and stating the required corrective action.
  3. Case integration exercise: each student receives a two-image set (admission CXR and 24-hour follow-up CXR) paired with the patient's ABG and ventilator data; students write a one-paragraph clinical summary comparing the images, relating changes to clinical data, and recommending a respiratory care adjustment.
Chest radiograph image library (printed films or digital display, minimum 30 images including pathology examples), structured CXR review checklist, light box or digital projector, ABG and ventilator data case sheetsWritten CXR identification quiz using 15 images: students must correctly identify the primary finding and its respiratory care implication in at least 12 of 15 images — 80% required to pass.
9Neonatal and Pediatric Respiratory Care Fundamentals36demoStudents will describe how neonatal and pediatric respiratory anatomy, physiology, and normal values differ from adult parameters, and correctly set up and operate a simulated neonatal resuscitation and continuous positive airway pressure (CPAP) system on an infant manikin.
  1. Comparative lecture-discussion: students complete a structured comparison table contrasting adult vs. neonatal vs. pediatric values for respiratory rate, tidal volume, anatomical dead space, common respiratory conditions, and monitoring parameters, then quiz each other in pairs.
  2. Infant manikin lab: students practice neonatal bag-and-mask ventilation using a properly sized infant mask and self-inflating bag, demonstrating correct head position, seal, ventilation rate, and pressure, with a manometer visible to avoid excessive pressures; instructor scores technique.
  3. Neonatal CPAP setup: students assemble a bubble CPAP circuit, set the prescribed PEEP by adjusting water column depth, fit a simulated nasal interface on an infant manikin, verify flow, and document the setup on a neonatal respiratory care flow sheet.
Infant resuscitation manikin, infant-size BVM with manometer, infant CPAP system (bubble CPAP or equivalent training model), neonatal nasal prongs interface, comparison table worksheet, neonatal respiratory care flow sheet, AARC Neonatal and Pediatric CPGsInstructor-observed skills checklist for neonatal BVM ventilation (8 critical steps, including mask seal and appropriate rate and pressure) and CPAP setup (6 steps): students must complete all critical steps correctly on both tasks — no critical errors permitted; retesting required for any critical error.
10Cardiopulmonary Emergency Response and BLS/ACLS Support40practiceStudents will demonstrate BLS-level response to a simulated cardiac arrest, including high-quality CPR, BVM ventilation, and AED use, and correctly perform the respiratory therapist's ACLS-support role during a simulated code blue, including ETT management and ventilator initiation post-ROSC.
  1. BLS refresher mega-code: working in teams of three on a CPR manikin with AED trainer, each student cycles through the roles of compressor, airway manager (BVM), and team leader/AED operator; instructor uses a standardized BLS performance checklist to score each role.
  2. Simulated code blue scenario: a full team scenario is staged in the lab (manikin, monitor, crash cart, ventilator); one student serves as the RT while peers play physician and nurse roles; the RT student manages airway, assists intubation, confirms tube placement, initiates ventilator post-ROSC, and provides verbal status updates to the team.
  3. Post-resuscitation care exercise: after the simulated ROSC, students adjust ventilator settings per a provided post-cardiac arrest care protocol (targeting normocapnia and appropriate oxygenation), draw a simulated ABG at 20 minutes, interpret results, and make one further adjustment, documenting the rationale.
Adult CPR manikin with feedback device, AED trainer, BVM (adult), crash cart with simulated medications (placebo), cardiac monitor/defibrillator trainer, mechanical ventilator with training lung, ETT and laryngoscope (for practice placement), BLS performance checklist, post-ROSC protocol reference cardBLS mega-code performance checklist: all three roles must be demonstrated with no critical errors (missed shock, inadequate compression depth, unrecognized airway failure); code-blue scenario: RT role checklist scored by instructor — at least 14 of 17 steps correct required to pass; either critical error triggers mandatory retest.
11Clinical Documentation, Charting, and Interdisciplinary Communication36practiceStudents will produce accurate, legally appropriate clinical documentation—including a respiratory care note in SOAP format, a ventilator flow sheet entry, and an SBAR handoff—for a simulated patient scenario, with no critical omissions or fabricated data.
  1. Documentation workshop: students receive a detailed simulated patient encounter narrative (assessment findings, treatments given, patient response, vitals) and write a complete SOAP note and ventilator flow sheet entry; notes are peer-reviewed against a documentation standards checklist covering accuracy, completeness, abbreviation correctness, and no blank fields.
  2. SBAR practice drill: in pairs, one student reads a 3-minute clinical scenario briefing and then delivers an oral SBAR handoff to their partner (playing the oncoming RT) in under 2 minutes; the receiving partner asks two clarifying questions; instructor scores delivery using a structured SBAR rubric.
  3. Error-correction exercise: students receive five pre-written clinical notes that each contain one documentation error (late entry not labeled, unapproved abbreviation, missing signature/time, contradictory data, altered entry); students identify and correct each error and explain the risk it creates.
SOAP note template, ventilator flow sheet template, SBAR communication card, approved abbreviation list, documentation standards checklist, five error-laden sample notes (instructor-prepared), legal/ethical documentation reference (AARC or joint commission standards summary)SOAP note and flow sheet scored with documentation rubric: zero critical omissions (missing patient identifier, missing assessment data, missing treatment outcome) and fewer than two non-critical errors required to pass; SBAR rubric: all four components present with accurate content — both must pass.
12Integrated Clinical Simulation: Full-Shift Patient Care Episodes42fieldStudents will independently manage a simulated caseload of three patients across a condensed clinical shift scenario, demonstrating integrated assessment, treatment, documentation, communication, and emergency response competencies with minimal instructor prompting.
  1. Full-shift simulation: the lab is configured as a three-bed ICU/step-down unit; each student rotates through an assigned 'shift' managing patients with different conditions (ventilator-dependent ARDS, COPD on high-flow nasal cannula, post-extubation monitoring); students complete assessments, adjust therapies, respond to a staged emergency (desaturation with alarm response), and document all encounters on clinical forms.
  2. Interdisciplinary rounds simulation: midway through the shift scenario, a simulated rounds team (instructor playing physician, peer playing nurse) conducts brief bedside rounds; the RT student presents each patient using SBAR format, answers clinical questions, and accepts or appropriately questions a new order.
  3. Shift debrief and self-evaluation: after the simulation, each student completes a structured self-evaluation rubric rating their own performance in assessment, decision-making, documentation, communication, and safety; instructor conducts a one-on-one debrief comparing self-evaluation with observed performance checklist.
Three-station simulated ICU lab setup, adult and pediatric manikins, mechanical ventilators with training lungs, high-flow nasal cannula system, monitoring equipment (SpO2, ETCO2, cardiac monitor trainer), clinical documentation forms (full set), shift report forms, emergency equipment (crash cart, BVM, suction), self-evaluation rubric, instructor observation checklistInstructor integrated observation checklist (25 items across all competency domains): students must pass at least 21 of 25 items and receive zero critical safety failures (missed emergency response, incorrect ETT confirmation, undocumented patient deterioration); any critical safety failure requires remediation and full retest of the simulation shift.
Assessments
AssessmentTypeWeightPass standardMethod & rubric
Clinical Knowledge ExaminationWritten exam25%75% or higher (minimum 75 of 100 questions correct)A 100-question multiple-choice examination covering patient assessment, ABG interpretation, oxygen and ventilator management, airway management, pulmonary function interpretation, chest radiograph findings, neonatal respiratory care, and cardiopulmonary emergency response, mapped to NBRC CRT and RRT exam content outlines. Questions are written at application and analysis levels to reflect the clinical decision-making demands of the NBRC examinations.
Standard met · Safety · Time · Quality/finish · Documentation
Integrated Clinical Skills DemonstrationSkills demonstration45%Pass on all four skill stations with no critical safety errors; a single critical error on any station requires remediation and full retest of that station before program progressionStudents rotate through four timed skill stations—complete patient assessment and SOAP documentation, ventilator initiation and alarm response, airway management (suctioning and BVM emergency response), and an SBAR handoff during simulated rounds—scored by the instructor using standardized checklists. This assessment mirrors the hands-on competency verification required prior to supervised clinical practicum placement.
Standard met · Safety · Time · Quality/finish · Documentation
Clinical Lab Log and Reflective JournalLog15%Submitted log must include a minimum of 10 dated, signed entries covering at least eight distinct competency areas; each entry must meet the documentation standards rubric with no critical omissions; reflective component must demonstrate self-assessment depth — scored as Complete/Incomplete with Complete required to passThroughout the course, students maintain a structured clinical lab log recording each simulation encounter: patient presentation, interventions performed, equipment used, findings, and one reflective paragraph linking the experience to an NBRC exam content area or scope-of-practice standard. The log demonstrates progressive skill development and readiness for clinical practicum and serves as a self-study resource for NBRC examination preparation.
Standard met · Safety · Time · Quality/finish · Documentation
Safety and Infection Control Competency CheckSafety audit15%100% of critical safety behaviors must be demonstrated correctly; any failure is an automatic retake of the specific safety behavior and requires documented remediation before clinical practicum placement is approvedA direct observation checklist administered by the instructor assesses students on hand hygiene technique, standard precautions and PPE donning/doffing sequence, sharps safety during simulated arterial blood gas sampling, correct oxygen equipment assembly to prevent fire hazard, and patient identification verification before treatment. This check replicates the safety compliance expectations of actual clinical sites and state licensing practice standards.
Standard met · Safety · Time · Quality/finish · Documentation
HLT-RESP80-07 Capstone

Capstone Project: Integrated Respiratory Therapy Case Design and Defense

432 hr · $4,320 COMPLIMENTARY

Students design, document, and defend a comprehensive respiratory care management plan for a complex, multi-system patient case, integrating all clinical knowledge and skills acquired across the program. The capstone requires students to apply evidence-based practice, patient safety principles, and professional communication to a realistic scenario that mirrors entry-level clinical decision-making. Successful completion demonstrates readiness for the NBRC credentialing examinations and state licensure practice.

Outcomes
Course text

Students design, document, and defend a comprehensive respiratory care management plan for a complex, multi-system patient case, integrating all clinical knowledge and skills acquired across the program. The capstone requires students to apply evidence-based practice, patient safety principles, and professional communication to a realistic scenario that mirrors entry-level clinical decision-making. Successful completion demonstrates readiness for the NBRC credentialing examinations and state licensure practice.

How the course runs. 4 blocks: Case Selection, Patient Assessment Synthesis, and Project Scoping; Evidence-Based Care Plan Development and Equipment Specification; Professional Documentation Package, Peer Safety Review, and NBRC Mapping; Capstone Oral Defense Before Faculty Panel.

What competent looks like. Design a complete, evidence-based respiratory care plan for a complex patient case including assessment findings, therapeutic goals, equipment selection, and monitoring parameters. Produce a professional clinical documentation package—including a patient assessment write-up, care plan, equipment logs, and progress notes—that meets standards expected in accredited healthcare facilities. Justify all clinical decisions by citing established respiratory care guidelines and referencing physiological rationale during an oral defense before a faculty panel. Identify and correct at least three patient safety or scope-of-practice errors embedded in a peer review exercise, demonstrating critical evaluation skills. Map each element of the capstone care plan to the corresponding NBRC CRT/RRT exam content domains, demonstrating awareness of how clinical practice aligns with credentialing requirements. Communicate care plan recommendations clearly and professionally to a simulated interdisciplinary team audience, using appropriate terminology and organized presentation structure.

Lessons · 4 blocks
#LessonHrTypeObjectiveActivitiesMaterialsCheck
1Case Selection, Patient Assessment Synthesis, and Project Scoping96theoryStudents select an approved complex patient case scenario and produce a comprehensive written patient assessment that synthesizes cardiopulmonary history, physical examination findings, laboratory values, and diagnostic results into a prioritized problem list.
  1. Review a library of three approved complex case scenarios (e.g., ARDS patient on mechanical ventilation, severe COPD exacerbation with hypercapnic respiratory failure, post-operative thoracic surgery patient with atelectasis) and complete a structured case-selection worksheet justifying their choice based on breadth of content coverage across program domains.
  2. Draft a full written patient assessment document including chief complaint, respiratory history, relevant medical and surgical history, physical examination findings (breath sounds, work of breathing, vital signs), ABG interpretation, pulmonary function data, imaging findings, and a prioritized problem list formatted to professional clinical standards.
  3. Participate in a facilitated small-group scoping session where peers and the instructor challenge the student's problem list and initial assumptions, requiring the student to defend each item with physiological rationale and revise the document based on structured feedback.
Approved case scenario packets with simulated chart data (ABG reports, PFT reports, CXR descriptions, lab panels), AARC Clinical Practice Guidelines (current edition), Scanlan's 'Egan's Fundamentals of Respiratory Care' (current edition), professional clinical documentation templates, rubric for patient assessment write-upCompleted patient assessment document scored against a 20-point rubric covering accuracy of data interpretation, completeness of problem list, professional documentation format, and absence of scope-of-practice errors; minimum passing score is 16/20 (80%).
2Evidence-Based Care Plan Development and Equipment Specification120labStudents construct a full respiratory care management plan—including therapeutic interventions, oxygen and ventilator parameters, airway management strategy, patient monitoring schedule, and weaning criteria—selecting and justifying all equipment and settings using established clinical evidence.
  1. Build a structured care plan document with clearly defined sections for each intervention category (oxygen therapy modality and flow/FiO2 targets, ventilator mode and initial parameter set, airway management approach including device selection and cuff management, bronchial hygiene or aerosol therapy if indicated, and patient/family education outline), annotating each decision with the supporting AARC Clinical Practice Guideline or peer-reviewed rationale.
  2. Complete a hands-on equipment specification lab session in which the student selects and configures actual or high-fidelity simulated equipment matching the care plan (e.g., set up a ventilator circuit to prescribed parameters, assemble and test an oxygen delivery system, prepare an intubation tray), photographing and documenting each configuration in an equipment log that forms part of the capstone portfolio.
  3. Run a tabletop simulation in which the instructor introduces three clinical complications or changes in patient status (e.g., sudden drop in SpO2, patient-ventilator dyssynchrony, suspected tube displacement) and the student must verbally and in writing describe the immediate assessment steps, corrective actions, and documentation required, adding a 'response protocol' addendum to the care plan.
Ventilator simulators or actual ventilators in lab (e.g., Hamilton, Puritan Bennett, Drager training units), oxygen delivery devices (non-rebreather masks, high-flow nasal cannula systems, Venturi masks), airway management mannequins, aerosol therapy equipment, AARC Clinical Practice Guidelines, care plan template with annotation fields, equipment log forms, camera or tablet for equipment documentationCare plan document and equipment log scored on a 30-point rubric evaluating clinical accuracy of parameters, evidence citation quality, equipment configuration correctness, safety and monitoring completeness, and documentation professionalism; minimum passing score is 24/30 (80%). Equipment configuration is evaluated separately: each device must be set to prescribed parameters within accepted clinical tolerance or the lab activity is repeated.
3Professional Documentation Package, Peer Safety Review, and NBRC Mapping120practiceStudents finalize a complete professional documentation package, conduct a structured peer safety review by identifying errors in a classmate's draft plan, and produce a written NBRC content-domain map linking each element of their capstone to the corresponding credentialing exam area.
  1. Compile the full capstone documentation package: patient assessment write-up, care plan with annotations, equipment log, simulated progress notes written at 0, 8, and 24 hours post-initiation of therapy, a patient/family education record, and a discharge or transition-of-care summary—formatted consistently with professional clinical documentation standards and reviewed for completeness using a documentation checklist.
  2. Participate in a structured peer safety review exercise in which the instructor has embedded at least five deliberate errors (including at least one scope-of-practice violation, one incorrect ventilator parameter, one oxygen dosing inconsistency, one documentation omission, and one patient identification error) into an anonymized peer's draft package; the student submits a written safety review report identifying each error, explaining the potential patient harm, and recommending the correct action.
  3. Complete an NBRC Content Domain Mapping worksheet by reviewing the official NBRC Detailed Content Outline for both the CRT and RRT examinations and identifying—for each section of their own capstone plan—the specific exam domain it addresses (e.g., patient assessment, therapeutic procedures, equipment, emergency care, patient education), then write a one-paragraph reflection on gaps identified and how they will address them in the Certification Exam Preparation course.
Completed draft capstone packages from Lessons 1 and 2, professional documentation checklist, peer review error-seeded case packets (prepared by instructor), NBRC Detailed Content Outline for CRT and RRT (current version, available at nbrc.org), NBRC Content Domain Mapping worksheet, progress note and discharge summary templatesDocumentation package scored on a 25-point rubric for completeness, accuracy, formatting, and absence of introduced errors; minimum 20/25 (80%). Peer safety review report must correctly identify a minimum of 4 of the 5 embedded errors with accurate harm explanation to pass; failure requires a second review of a new error packet before proceeding. NBRC mapping worksheet is graded pass/fail based on logical and accurate alignment with the official content outline.
4Capstone Oral Defense Before Faculty Panel96fieldStudents present and defend their complete capstone care plan before a two-member faculty panel, demonstrating the ability to articulate clinical reasoning, respond accurately to challenge questions, and communicate recommendations in a professional interdisciplinary-team format.
  1. Deliver a structured 20-minute oral presentation of the capstone project to a faculty panel, covering patient assessment summary, rationale for each major therapeutic decision, anticipated patient outcomes, safety monitoring plan, and NBRC domain alignment—using a visual aid (slide deck or poster) that the student prepared independently.
  2. Respond to a minimum of 15 minutes of structured challenge questions from the faculty panel, which will cover clinical reasoning (e.g., 'Why did you choose this ventilator mode over assist-control?'), safety scenarios (e.g., 'What would you do if the patient deteriorated in this way?'), scope-of-practice boundaries, and connections to credentialing exam content areas—all responses are scored in real time on a standardized oral defense rubric.
  3. Participate in a structured faculty debrief immediately following the defense in which panelists identify two areas of strength and two areas for continued development, and the student verbally summarizes the feedback and identifies one specific action they will take in the Certification Exam Preparation course to address a knowledge gap identified during the defense.
Student-prepared visual aid (slide deck or poster, completed before defense day), faculty oral defense rubric, standardized challenge question bank (prepared by lead instructor), audio or video recording equipment (for student self-review with consent), faculty evaluation forms, NBRC Detailed Content Outline for reference during debriefOral defense scored by two independent faculty panelists on a 25-point rubric covering presentation clarity and organization (5 pts), accuracy and depth of clinical reasoning (10 pts), quality of responses to challenge questions (7 pts), and professional communication (3 pts); both panelists must award a minimum of 20/25 (80%) for the student to pass. Discrepancies of more than 4 points between panelists trigger a third evaluator review. Students who do not pass are given one remediation opportunity within two weeks, addressing documented deficiencies.
Assessments
AssessmentTypeWeightPass standardMethod & rubric
Capstone Care Plan ProjectProject60%Minimum 80% on each of the three scored components: patient assessment document, care plan with equipment log, and professional documentation package; all components must individually meet the 80% threshold—averaging is not permitted.The complete written capstone project is evaluated as an integrated deliverable consisting of the patient assessment write-up, annotated evidence-based care plan, equipment configuration log, simulated progress notes, patient education record, and discharge summary. Faculty score each component against its rubric, and the aggregate project demonstrates the student's ability to plan and document safe, evidence-based respiratory care for a complex patient from admission through transition of care.
Meets specification · Within estimate · Workmanship · Safety · Documentation
Capstone PortfolioPortfolio20%All required portfolio elements must be present and meet a minimum score of 80% on the portfolio completeness and quality rubric; the peer safety review report must independently achieve a passing score (identifying at least 4 of 5 embedded errors) as a non-negotiable requirement.The portfolio collects all artifacts produced across the capstone course—the scoping worksheet, drafts with revision history showing incorporation of feedback, the peer safety review report, the NBRC Content Domain Mapping worksheet, and the faculty-approved final documentation package—assembled in a professional binder or electronic format with a student-authored reflective introduction. The portfolio demonstrates growth, professional documentation habits, and readiness to connect classroom learning to credentialing requirements.
Completeness · Organization · Evidence quality
Oral DefenseOral / panel20%Minimum score of 20/25 (80%) from each of two independent faculty evaluators; both scores must meet the threshold independently. One remediation attempt is permitted within two weeks for students who do not meet the standard on the first defense.The oral defense is a formal, faculty-panel examination in which the student presents the capstone project and responds to clinical challenge questions for a minimum of 35 minutes total, demonstrating the ability to justify clinical decisions, respond safely to simulated complications, respect scope-of-practice boundaries, and communicate professionally in a simulated interdisciplinary setting. Successful performance signals readiness for entry-level clinical practice and the NBRC credentialing examinations.
Explains decisions · Answers technical questions · Professional communication
HLT-RESP80-08 Externship / clinical

Clinical Practicum: Supervised Respiratory Therapy Practice

648 hr · $2,590 COMPLIMENTARY

Students complete 648 supervised hours at approved clinical sites—hospitals, long-term acute care facilities, or pulmonary rehabilitation centers—applying all prior coursework under the direct oversight of credentialed respiratory therapists. Learners rotate through adult critical care, neonatal/pediatric units, general care floors, and pulmonary function or sleep labs to build the breadth of patient contact required for entry-level competency. Performance is measured against NBRC Entry-Level CRT and Advanced-Level RRT examination domains and documented through employer evaluations and a clinical log.

Outcomes
Course text

Students complete 648 supervised hours at approved clinical sites—hospitals, long-term acute care facilities, or pulmonary rehabilitation centers—applying all prior coursework under the direct oversight of credentialed respiratory therapists. Learners rotate through adult critical care, neonatal/pediatric units, general care floors, and pulmonary function or sleep labs to build the breadth of patient contact required for entry-level competency. Performance is measured against NBRC Entry-Level CRT and Advanced-Level RRT examination domains and documented through employer evaluations and a clinical log.

How the course runs. 4 blocks: Site Orientation, Safety Compliance, and Clinical Readiness; General Care and Pulmonary Function Rotations; Critical Care, Mechanical Ventilation, and Airway Management Rotations; Integrated Practice, Emergency Response, and Externship Close-Out.

What competent looks like. Perform safe, patient-centered respiratory assessments and treatments—including oxygen delivery, aerosol medication administration, airway management, and mechanical ventilation management—on real patients under licensed supervision. Demonstrate professional communication with patients, families, nurses, and physicians in compliance with HIPAA and facility policies. Document all patient care activities accurately and in a timely manner in the clinical record, meeting the site's standards and scope-of-practice requirements. Self-assess clinical performance against NBRC CRT and RRT competency domains and identify personal learning gaps for remediation. Respond appropriately to clinical emergencies, including initiating CPR, assisting with rapid intubation, and escalating deteriorating patient status to the supervising therapist. Complete a minimum of the program-required supervised clinical hours and achieve satisfactory ratings on all employer evaluation rubric domains.

Lessons · 4 blocks
#LessonHrTypeObjectiveActivitiesMaterialsCheck
1Site Orientation, Safety Compliance, and Clinical Readiness48fieldThe student will complete all site-specific onboarding requirements and demonstrate correct infection-control, emergency-response, and documentation procedures before delivering any patient care.
  1. Attend facility orientation sessions covering hand hygiene protocols, personal protective equipment selection, fire and emergency codes, electronic health record (EHR) access, and patient rights; complete the site's required competency checklists with a preceptor co-signature.
  2. Shadow the assigned preceptor for a full shift, narrating observed actions aloud and receiving corrective verbal feedback; document at least five patient encounters in the clinical log using SOAP or the site's preferred format.
  3. Practice proper donning and doffing of airborne, droplet, and contact precaution PPE in the clinical setting under preceptor observation until three consecutive error-free demonstrations are recorded.
Facility policy and procedure manuals, EHR training modules, PPE supply stations, clinical log binder or electronic portfolio template, NBRC CRT/RRT Candidate Handbook (current edition) for domain referencePreceptor signs off all mandatory site competency checklists; student scores 100% on the facility's infection-control return-demonstration; clinical log entry for each shift is complete and co-signed—any unsigned or incomplete entry requires redo before advancing.
2General Care and Pulmonary Function Rotations180fieldThe student will independently set up and administer prescribed oxygen therapy, aerosol medication treatments, and incentive spirometry, and will correctly perform or assist with spirometry and pulse oximetry testing on general-care patients under preceptor supervision.
  1. Perform a minimum of 30 documented oxygen-delivery setups (nasal cannula, simple mask, non-rebreather, high-flow nasal cannula) across varied patients, adjusting flow rates to achieve prescribed SpO₂ targets and recording titration rationale in the clinical log each time.
  2. Administer prescribed small-volume nebulizer and metered-dose inhaler treatments—including patient education on proper technique—for at least 25 encounters; after each treatment, assess and document breath sounds, peak flow or SpO₂ change, and patient response.
  3. Under direct supervision in the pulmonary function lab, position patients, calibrate the spirometer per ATS/ERS standards, coach patients through acceptable maneuvers, and print and label flow-volume loops for therapist interpretation on at least ten test sessions.
Oxygen delivery devices (cannula, masks, HFNC system), small-volume nebulizers, MDIs with spacers, incentive spirometers, pulse oximeters, calibrated diagnostic spirometer, ATS/ERS Standardization of Spirometry guidelines, clinical logPreceptor rates each oxygen, aerosol, and spirometry encounter on the program's 4-point clinical skills rubric (1 = unsafe, 2 = needs cuing, 3 = competent with minimal cuing, 4 = independent); student must achieve an average rating of 3 or higher across all encounters in this rotation to proceed; encounters rated 1 require immediate remediation and repeat demonstration.
3Critical Care, Mechanical Ventilation, and Airway Management Rotations300fieldThe student will manage and troubleshoot mechanical ventilator circuits, perform or assist with advanced airway procedures, and contribute to ventilator weaning assessments on adult and neonatal/pediatric ICU patients under the continuous supervision of a credentialed therapist.
  1. For at least 40 documented ventilator-management sessions, set initial parameters as ordered, interpret waveforms and alarm conditions, calculate static compliance and airway resistance, adjust FiO₂ or PEEP as directed by the supervising therapist, and record all changes with clinical rationale; include at least five sessions involving non-invasive ventilation (BiPAP/CPAP).
  2. Participate in or observe a minimum of 15 airway management events (orotracheal intubation, extubation, tracheostomy care, suctioning, cuff pressure checks), performing the assigned task while narrating technique to the preceptor; document airway size, cuff pressure reading, and post-procedure assessment for each.
  3. Complete spontaneous awakening trial (SAT) and spontaneous breathing trial (SBT) readiness checks on at least 10 eligible patients, documenting rapid shallow breathing index (RSBI) calculation, pass/fail criteria, and recommendation in the clinical record under preceptor review.
Adult and neonatal/pediatric mechanical ventilators (site-available models), ventilator circuits, PEEP valves, heated humidifiers, endotracheal and tracheostomy tubes in assorted sizes, cuff manometer, inline suction catheters, manual resuscitators (BVM), capnography monitor, clinical log, AARC Clinical Practice Guidelines (relevant sections)Preceptor uses the program's ventilator management and airway competency checklists (one per event type); student must achieve a rating of 3 or higher on at least 80% of all checklist items across this rotation; any item rated 1 (unsafe) halts the activity, triggers a documented remediation plan, and requires a repeat supervised demonstration before the student may perform that skill again.
4Integrated Practice, Emergency Response, and Externship Close-Out120fieldThe student will function at a near-independent level across assigned patient loads, respond correctly to simulated or actual clinical emergencies, and complete all documentation required for externship evaluation and program graduation.
  1. Carry a supervised patient assignment of at least four patients per shift for a minimum of ten shifts, prioritizing and organizing care independently, then debriefing with the preceptor at shift end using a structured reflection tool that maps each clinical decision to an NBRC exam domain.
  2. Participate in or lead (under direct supervision) at least two code-blue or rapid-response events, demonstrating BLS/CPR, BVM ventilation, and clear communication of patient status using SBAR format; document role, actions taken, and outcome in the clinical log.
  3. Compile the complete clinical log—with all entries co-signed by preceptors—and submit the final employer evaluation form; conduct a 15-minute exit interview with the site clinical coordinator and program faculty liaison, discussing three clinical strengths and two areas targeted for continued growth before the NBRC examinations.
BVM, code cart (site-supplied), SBAR communication reference card, complete clinical log portfolio, employer evaluation rubric form, NBRC CRT/RRT exam domain crosswalk chart, program faculty liaison evaluation formStudent delivers error-free (preceptor-confirmed) BVM ventilation and chest compressions during code participation; shift debriefs show correct NBRC domain mapping on at least 80% of documented decisions; all clinical log entries are complete and co-signed before the exit interview; employer evaluation achieves a passing average (see assessments below) before the program faculty liaison signs off on externship completion.
Assessments
AssessmentTypeWeightPass standardMethod & rubric
Employer Clinical EvaluationClinical evaluation70%Average score of 3.0 or higher (on a 4-point scale) across all rubric domains, with no domain rated below 2 on the final evaluation; any domain rated 1 at close-out requires a remediation plan and additional supervised hours before the externship is certified complete.The site preceptor and clinical coordinator complete the program's standardized employer evaluation rubric at the midpoint and at the end of the externship, rating the student on patient assessment, treatment delivery, airway and ventilator management, critical thinking, professionalism, communication, and documentation accuracy. Mid-point ratings below 2.5 in any domain trigger a written improvement plan co-signed by the student, preceptor, and faculty liaison; failure to meet the passing standard by the final evaluation results in additional required hours or program remediation.
Competency · Safety · Attendance · Conduct · Initiative
Clinical LogLog30%100% of required encounters documented and co-signed by a credentialed preceptor; all NBRC competency domains represented with at least the minimum encounter counts specified per lesson; no undated, unsigned, or falsified entries accepted—any falsification results in automatic externship failure per program academic integrity policy.Students maintain a running clinical log—paper binder or approved electronic portfolio—recording every patient encounter with date, patient type (adult/pediatric/neonatal), procedure performed, patient response, clinical rationale, preceptor name, and credential; entries must be legible, complete, and submitted to the faculty liaison for review at midpoint and at the close of the externship. The log serves as the primary evidence that the student has met minimum clinical contact requirements for both program completion and NBRC examination eligibility documentation.
Complete · Verified
HLT-RESP80-09 Exam prep

Certification Exam Preparation: NBRC CRT/RRT and State Licensure

180 hr · $1,800 COMPLIMENTARY

This course systematically reviews every content domain tested on the NBRC Therapist Multiple-Choice Examination (TMC) and Clinical Simulation Examination (CSE), preparing candidates for CRT and RRT credentialing and state licensure application. Students complete timed, full-length mock examinations under realistic conditions, analyze their performance by domain, and build targeted remediation plans. Emphasis is placed on clinical decision-making, patient safety reasoning, and the procedural knowledge required to practice legally and competently as an entry-level respiratory therapist.

Outcomes
Course text

This course systematically reviews every content domain tested on the NBRC Therapist Multiple-Choice Examination (TMC) and Clinical Simulation Examination (CSE), preparing candidates for CRT and RRT credentialing and state licensure application. Students complete timed, full-length mock examinations under realistic conditions, analyze their performance by domain, and build targeted remediation plans. Emphasis is placed on clinical decision-making, patient safety reasoning, and the procedural knowledge required to practice legally and competently as an entry-level respiratory therapist.

How the course runs. 4 blocks: NBRC Credential Roadmap and Diagnostic Baseline Assessment; TMC Content Domain Deep-Review: Patient Assessment, Therapeutics, and Equipment; Clinical Simulation Examination (CSE) Strategies and Case Practice; Full Mock Certification Examinations and Final Remediation.

What competent looks like. Accurately answer questions in all NBRC TMC content domains—patient data evaluation, troubleshooting, therapeutic procedures, and disease management—at a passing-level score on timed practice sets. Successfully navigate NBRC Clinical Simulation Examination case scenarios by applying the correct sequence of gather-information, treatment, and outcome-evaluation decision points. Identify personal content weaknesses by domain using diagnostic practice-test data and execute a structured self-remediation plan before the mock final. State the CRT and RRT credentialing eligibility requirements, application process steps, and the role of the state licensing board in authorizing legal practice. Demonstrate exam-day strategies including time management, question-stem analysis, and elimination of distractor answers under timed conditions. Apply patient safety and scope-of-practice principles when selecting answers on both the TMC and CSE, recognizing that unsafe or out-of-scope options are always incorrect.

Lessons · 4 blocks
#LessonHrTypeObjectiveActivitiesMaterialsCheck
1NBRC Credential Roadmap and Diagnostic Baseline Assessment20theoryStudents will explain the CRT and RRT credentialing pathway, TMC and CSE formats, and state licensure requirements, and will use a full-length diagnostic practice TMC to identify individual domain strengths and gaps.
  1. Instructor-led orientation covering NBRC eligibility categories, the TMC cut-score structure for CRT vs. RRT, CSE format (case-based branching decisions), and how state licensing boards use NBRC results; students complete a structured notes template and ask clarifying questions.
  2. Students complete a timed 160-question diagnostic practice TMC (drawn from published NBRC-style question banks) under exam-like conditions, then self-score and map every missed item to the official NBRC detailed content outline by domain and subdomain.
  3. Small-group debrief: each student shares their top two weak domains, the group discusses why those areas are commonly difficult, and each student writes a one-page individualized study plan with specific resources (textbook chapters, simulation modules, clinical notes) assigned to each weak domain.
NBRC Candidate Handbook (current edition); Egan's Fundamentals of Respiratory Care (current edition); Respiratory Care Exam Review by Gary Persing or equivalent NBRC-aligned review text; NBRC-style 160-question diagnostic practice exam; NBRC Detailed Content Outline; blank domain-mapping worksheet; whiteboard.Student submits a completed domain-gap analysis worksheet and individualized study plan; instructor reviews for accuracy of domain mapping and realistic goal-setting. Pass standard: all missed items correctly categorized by domain and study plan addresses every domain scoring below 70%.
2TMC Content Domain Deep-Review: Patient Assessment, Therapeutics, and Equipment80practiceStudents will correctly answer at least 75% of practice questions across all TMC content domains—including patient data evaluation, clinical problem-solving, equipment operation, and therapeutic procedures—through structured review sessions and targeted remediation.
  1. Rotating domain-focused review blocks (approximately 8–10 hours each): instructor delivers focused review of high-yield concepts for each major TMC domain (e.g., arterial blood gas interpretation, ventilator management, airway pharmacology, pulmonary function testing, neonatal/pediatric care, disease management, infection control), using case vignettes from the review text and projected NBRC-style questions; students answer questions live using individual response cards, and the group discusses rationale for correct and incorrect options.
  2. Daily 40-question timed practice sets organized by domain; students score each set, enter results into a running domain-tracking spreadsheet, flag questions answered incorrectly for re-study, and complete a brief written rationale for each corrected answer—reinforcing understanding rather than memorization.
  3. Peer teach-back sessions: pairs of students are assigned one subdomain each (e.g., interpreting flow-volume loops, setting initial ventilator parameters for ARDS) and must teach it back to the class using a whiteboard explanation and two original practice questions with answer rationale; class evaluates accuracy and clarity using a provided checklist.
Egan's Fundamentals of Respiratory Care; NBRC-aligned review text; domain-tracking spreadsheet template; NBRC Detailed Content Outline; pulmonary function testing reference values; ABG interpretation algorithm card; ventilator parameter quick-reference; pharmacology drug-class summary sheet; projector; response cards.Running domain-tracking spreadsheet reviewed by instructor at midpoint (end of hour 60 of this lesson) and at lesson end; each domain must reach ≥75% average correct on practice sets before the student advances to CSE preparation. Students scoring below 75% in any domain complete targeted remediation reading and a second 20-question domain set before proceeding.
3Clinical Simulation Examination (CSE) Strategies and Case Practice50labStudents will correctly sequence information-gathering, treatment-selection, and outcome-evaluation decisions in NBRC-style clinical simulation cases, demonstrating safe clinical reasoning by avoiding critical errors that result in automatic case failure.
  1. Instructor demonstration of CSE case structure using a projected sample case: students observe the gather/treat/evaluate branching format, discuss what constitutes a critical error (an action that harms or seriously endangers the patient), and practice the decision-making framework—assess before treating, escalate when the patient deteriorates, recognize when a problem is outside RT scope—using guided think-aloud narration.
  2. Students independently work through a series of graded CSE practice cases covering acute respiratory failure, post-operative complications, neonatal respiratory distress, COPD exacerbation, and asthma management; after each case, students complete a written self-debrief identifying any critical errors made, the correct branch they should have taken, and the clinical reasoning principle violated.
  3. Timed full-length mock CSE session (22 cases, timed per NBRC guidelines): students complete the simulation independently on paper-based or software-based case sets; instructor scores each case for critical errors and overall decision quality; group debrief focuses on the most common reasoning errors observed, with emphasis on patient safety priorities and knowing when to notify the physician.
NBRC CSE practice case booklets or equivalent software simulation (e.g., publisher-provided online cases); CSE decision-tree framework handout; critical-error reference list from NBRC candidate materials; sample case answer-key with rationale; clock or timer.Each practice case scored for critical errors (zero critical errors required to pass a given case); timed mock CSE scored by instructor—pass standard is completing all cases within the allotted time with critical errors in no more than 10% of cases and correct primary treatment decisions in ≥75% of cases. Students with critical errors on the mock CSE complete mandatory case remediation with instructor before sitting the final mock examination.
4Full Mock Certification Examinations and Final Remediation30practiceStudents will complete a full timed mock TMC and a full timed mock CSE under exam-day conditions, achieving passing-level scores and demonstrating readiness for the NBRC credentialing examinations and state licensure application.
  1. Mock exam day: students complete a full 160-question timed mock TMC followed (after a scheduled break) by a full mock CSE, both administered under proctored, exam-like conditions with no notes, no phones, and strict time limits matching NBRC guidelines; students also complete a brief written checklist reviewing the NBRC application process and their state licensing board's requirements for submitting credentials.
  2. Individual score report review: instructor meets with each student to review their mock TMC domain-by-domain score report and mock CSE case results, identifying any remaining gaps; students below passing threshold on any domain create a final one-week remediation reading and practice-question schedule targeting that domain before their actual exam date.
  3. Exam-readiness and professional preparation session: group discussion of test-day logistics (scheduling the NBRC exam, identification requirements, what to expect at the testing center), stress management strategies, and post-exam steps including submitting results to the state licensing board to obtain a state RT license; students complete a final self-assessment checklist confirming they have met all NBRC eligibility requirements and understand the licensure application steps.
Full-length mock TMC (160 questions, NBRC-style); full-length mock CSE (22 cases); proctor script; NBRC Candidate Handbook; state licensing board application checklist (state-specific); individual score-report template; timer; quiet proctored testing room.Pass standard for mock TMC: score at or above the published CRT-level cut score on the NBRC Detailed Content Outline domain weighting (instructor uses current NBRC cut-score guidance). Pass standard for mock CSE: zero critical errors across all cases and correct primary decision in ≥75% of cases. Students who do not meet passing standards complete structured remediation and a second mock in the deficient area; instructor sign-off required before the student is cleared to schedule the official NBRC examination.
Assessments
AssessmentTypeWeightPass standardMethod & rubric
Full Mock Certification Examination (TMC + CSE)Mock certification exam100%Mock TMC score at or above the current NBRC CRT-level cut score on all major content domains; mock CSE with zero critical errors across all cases and correct primary treatment decisions in at least 75% of cases; students not meeting either standard complete documented remediation and a retake before course completion.Students sit a complete, proctored mock TMC (160 questions, timed to NBRC guidelines) immediately followed by a complete mock CSE (full case set, timed to NBRC guidelines) under conditions that replicate the actual credentialing examination as closely as possible. Performance is scored by domain for the TMC and by case for the CSE, generating an individual readiness report that guides any final remediation and confirms the student is prepared to sit the official NBRC examinations and apply for state licensure.
Score · Time management
Program completion

External credential: NBRC CRT/RRT; State RT License

Students prepare to sit the National Board for Respiratory Care (NBRC) examinations leading to the Certified Respiratory Therapist (CRT) and Registered Respiratory Therapist (RRT) credentials. After earning the CRT, graduates may also apply for the state respiratory therapy license required by their state licensing board to practice legally. Pass standard: Credential issued by the body.

Back to Respiratory Therapy · How the school gets authority to award these credentials