🚧 Under construction — VoTechWorks is being built. A free tech program — complimentary, as our commitment to get America working.
voTechWorksGrade 13 · a vocational technology learning center, by urbanicity
newSchoolWorks.com › VoTechWorks › Health & Personal Services › Respiratory Therapy › Capstone Project: Integrated Respiratory Therapy Case Design and Defense › Lesson 2
HLT-RESP80-07 · Lesson 2 · 120 clock hours · lab

Evidence-Based Care Plan Development and Equipment Specification

Objective. Students 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.

⚠ Pending professional review

This lesson, its worked examples and its practice questions 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.

VoTechWorks program approval and accreditation are still in progress. Credentials are issued only by the certifying bodies named in each program, after their own exams.

Why an Integrated Care Plan Matters

A respiratory care management plan is the document that connects assessment findings to every clinical action you will take for a patient. In professional practice, a well-constructed plan protects the patient, guides the entire care team, and demonstrates that your decisions are grounded in evidence rather than habit. For your capstone, building this plan from scratch—and defending it—proves you can function as an entry-level respiratory therapist from day one.

Structure of the Care Plan

A complete respiratory care plan contains clearly separated sections. Each section carries its own interventions, targets, and rationale.

Oxygen Therapy. Begin by identifying the clinical indication (hypoxemia, high work of breathing, post-extubation support, etc.). Select the delivery device that matches the patient's ventilatory pattern and required FiO2. A simple nasal cannula covers mild hypoxemia at low flows; a non-rebreather mask delivers higher FiO2 for moderate-to-severe hypoxemia when the patient breathes spontaneously; a high-flow nasal cannula (HFNC) system provides heated, humidified gas at precise FiO2 and flows that reduce work of breathing and can serve as a bridge to avoid intubation. A Venturi mask is the right choice when you need a precise, controlled FiO2—for example, in patients with chronic hypercapnia where over-oxygenation is a concern. State the SpO2 or PaO2 target range, and cite the AARC Clinical Practice Guideline for oxygen therapy as your rationale anchor.

Ventilator Mode and Initial Parameters. If the patient requires mechanical ventilation, document the mode and every initial parameter: tidal volume (typically 6–8 mL/kg of ideal body weight for lung-protective ventilation in ARDS, or adjusted for the clinical picture), respiratory rate, PEEP, FiO2, inspiratory time or I:E ratio, and flow or pressure settings as the mode requires. Explain why the chosen mode fits the patient's diagnosis and respiratory mechanics. Cite evidence such as the ARDSNet low-tidal-volume strategy where applicable, or the relevant AARC guideline for the condition.

Airway Management Strategy. Specify the artificial airway in place or planned: endotracheal tube size, insertion depth at the lip or nare, cuff management target (typically a cuff pressure of 20–30 cmH2O to prevent aspiration and mucosal injury), and the schedule for cuff pressure checks. Include the plan for securing the airway and verifying position (waveform capnography plus clinical assessment plus chest radiograph). Note which backup equipment must be at the bedside and who is responsible for emergent airway management.

Bronchial Hygiene and Aerosol Therapy. If secretion clearance is indicated—because of pneumonia, atelectasis, excessive secretions, or neuromuscular disease—select the appropriate technique: manual percussion, mechanical insufflation-exsufflation, high-frequency chest wall oscillation (HFCWO), or directed cough instruction. For inhaled medications, document the drug, dose, frequency, delivery device (small-volume nebulizer, breath-actuated nebulizer, metered-dose inhaler with spacer, or in-line nebulizer for ventilated patients), and the monitoring parameters that will tell you the treatment worked.

Patient and Family Education. Outline the teaching content, method (verbal, written materials, demonstration-return demonstration), and how you will assess understanding. For ventilated or otherwise non-communicative patients, focus education on family members. Education is not optional; it is a documented, billable component of care that affects outcomes.

Annotating Decisions with Evidence

Every decision in the care plan must reference a source. The AARC publishes Clinical Practice Guidelines (CPGs) covering oxygen therapy, ventilator weaning, aerosol delivery, airway suctioning, bronchial hygiene, and many other areas. Use the specific guideline that governs your intervention. When a CPG does not exist or the situation is more complex, cite a peer-reviewed source. The annotation goes directly in the care plan document, next to the decision it supports. This habit mirrors what you will do in professional practice when a physician asks why you made a clinical choice.

Equipment Specification and Configuration

Knowing what to order is not enough; you must be able to physically set up, test, and troubleshoot the equipment. In the lab session, you will select devices from available inventory, configure them to the parameters in your care plan, and document the configuration with photographs and written notes in your equipment log.

For ventilators, confirm that the circuit is correct for the patient type (adult, pediatric), that humidification is active (heated wire circuit or heat-moisture exchanger as appropriate), that alarms are set to clinically meaningful limits, and that the backup rate and apnea settings are enabled. For oxygen systems, verify the flow meter setting, mask fit, and reservoir bag integrity on a non-rebreather. For HFNC, verify the flow rate, FiO2 dial, and temperature setting, and confirm the humidifier water level.

Safety principle: Never silence an alarm without identifying and correcting its cause. Always perform a pre-use equipment check before connecting any device to a patient.

Responding to Clinical Complications

The tabletop simulation tests your ability to recognize deterioration and respond systematically. Use a structured approach: Assess → Identify → Act → Document. For a sudden SpO2 drop, your immediate steps are to assess the patient (level of consciousness, work of breathing, color), check the monitoring lead and probe for artifact, examine the airway and circuit for disconnection or obstruction, increase FiO2 temporarily if needed, and call for help if the problem is not immediately correctable. For patient-ventilator dyssynchrony, assess the patient and examine waveforms to identify the type of dyssynchrony (flow starvation, double-triggering, auto-PEEP) before changing settings. For suspected tube displacement, confirm with waveform capnography immediately and prepare for re-intubation if indicated. Every response becomes a written addendum in the care plan.

Documentation and Professionalism

Your care plan and equipment log are legal and professional documents. Use standard abbreviations, correct units, legible formatting, and complete entries. Incomplete documentation is treated the same as no documentation in clinical and regulatory review.

Connection to Your Credentials

The NBRC CRT and RRT examinations test clinical decision-making across all the domains covered here: patient assessment, therapeutic interventions, equipment selection and troubleshooting, and emergency management. Your state respiratory therapy license requires that you practice within the scope established by your state practice act. The care plan format you practice in this capstone reflects real-world documentation standards that will satisfy both employer expectations and regulatory requirements.

Key terms10

Ideal Body Weight (IBW)A calculated weight based on patient height and sex, used to set tidal volume targets in mechanical ventilation so that lung stretch is proportional to lung size rather than actual body mass.
PEEP (Positive End-Expiratory Pressure)Pressure maintained in the airway at the end of exhalation during mechanical ventilation to prevent alveolar collapse, improve oxygenation, and reduce shunt.
FiO2 (Fraction of Inspired Oxygen)The proportion of oxygen in the gas delivered to the patient, expressed as a decimal (0.21–1.0); a key parameter set on oxygen delivery devices and ventilators.
AARC Clinical Practice Guideline (CPG)An evidence-based document published by the American Association for Respiratory Care that provides recommendations for the performance of specific respiratory therapy procedures.
Cuff PressureThe pressure inside the inflatable cuff of an endotracheal or tracheostomy tube; clinically maintained in a range (commonly 20–30 cmH2O) that seals the airway without injuring the tracheal mucosa.
Patient-Ventilator DyssynchronyA mismatch between the patient's respiratory effort and the breath delivered by the ventilator, which can increase work of breathing, worsen gas exchange, and cause patient distress.
Waveform CapnographyContinuous measurement and graphic display of exhaled CO2 concentration over time; the standard of care for confirming and monitoring endotracheal tube placement during ventilation.
High-Flow Nasal Cannula (HFNC)An oxygen delivery system that provides heated, humidified gas at flows higher than conventional devices (up to 60 L/min in adults), enabling precise FiO2 delivery and reducing work of breathing.
Lung-Protective VentilationA ventilation strategy that uses low tidal volumes (typically 6 mL/kg IBW) and limits plateau pressure to reduce ventilator-induced lung injury, particularly in ARDS.
Bronchial Hygiene TherapyA category of respiratory care interventions aimed at mobilizing and clearing airway secretions, including manual techniques, mechanical devices, and directed cough training.

Worked examples4

1. A male patient is 5 ft 10 in tall (70 inches). Using the standard IBW formula for males (IBW = 50 + 2.3 × [height in inches − 60]), calculate his IBW. Then calculate the tidal volume range for lung-protective ventilation at 6–8 mL/kg IBW.
  1. Convert height to inches above 60: 70 − 60 = 10 inches.
  2. Apply the male IBW formula: IBW = 50 + 2.3 × 10 = 50 + 23 = 73 kg.
  3. Calculate the low end of the tidal volume range: 6 mL/kg × 73 kg = 438 mL.
  4. Calculate the high end: 8 mL/kg × 73 kg = 584 mL.
  5. Round to clinically practical values and set the ventilator within this range, starting at 6 mL/kg (438 mL) for an ARDS patient and reassessing.
Answer: IBW = 73 kg; lung-protective tidal volume range is 438–584 mL. For ARDS, initiate at approximately 438 mL (6 mL/kg IBW).
2. A patient on a non-rebreather mask at 15 L/min has an SpO2 of 88%. The care plan target is SpO2 ≥ 92%. The attending asks you to transition to HFNC at an FiO2 of 0.60 and a flow of 40 L/min. Express the FiO2 as a percentage and confirm the flow setting is within the adult HFNC operating range (up to 60 L/min).
  1. Convert FiO2 decimal to percentage: 0.60 × 100 = 60%.
  2. Confirm 40 L/min is within the adult HFNC maximum of 60 L/min — it is.
  3. Document the ordered settings: FiO2 60%, flow 40 L/min.
  4. Set the HFNC device to these parameters, confirm humidifier is active and at the appropriate temperature setting, and reassess SpO2 within 15–30 minutes.
Answer: FiO2 = 60% (0.60); flow = 40 L/min. Both parameters are within accepted device operating range. Reassess SpO2 after transition to confirm target ≥ 92% is met.
3. You are checking cuff pressure on a size 7.5 mm endotracheal tube. Your cuff manometer reads 34 cmH2O. The accepted clinical range is 20–30 cmH2O. By how many cmH2O is the pressure above the upper limit, and what is your corrective action?
  1. Identify the upper limit of the accepted range: 30 cmH2O.
  2. Calculate the overpressure: 34 − 30 = 4 cmH2O above the upper limit.
  3. The cuff is over-inflated; over-inflation increases the risk of tracheal mucosal ischemia and injury.
  4. Slowly release air from the cuff pilot balloon in small increments while watching the manometer until pressure falls to within the 20–30 cmH2O range.
  5. Re-check the reading, document the initial finding and corrective action, and assess for air leak around the cuff after adjustment.
Answer: The cuff pressure is 4 cmH2O above the 30 cmH2O upper limit. Deflate incrementally to reach 20–30 cmH2O, then document and reassess for air leak.
4. During the tabletop simulation, the patient's SpO2 drops from 96% to 82% over two minutes. The ventilator alarms show a high-pressure limit alarm. List the systematic assessment steps in order.
  1. Step 1 – Assess the patient first: check level of consciousness, chest rise symmetry, skin color, and work of breathing.
  2. Step 2 – Manually ventilate with a bag-valve device connected to 100% oxygen to bypass the ventilator and determine whether the problem is patient-related or circuit-related.
  3. Step 3 – Inspect the circuit: look for kinking, water accumulation, or disconnection.
  4. Step 4 – Suction the airway if secretion obstruction is suspected.
  5. Step 5 – Auscultate both lung fields: absent unilateral breath sounds suggest tube displacement into a mainstem bronchus or pneumothorax.
  6. Step 6 – Confirm tube position with waveform capnography and, if displacement is suspected, prepare for re-intubation while calling the physician.
  7. Step 7 – Document all findings and actions with time stamps in the care plan response protocol addendum.
Answer: Patient comes first—manual ventilation, circuit inspection, suctioning, auscultation, capnography confirmation, escalate to physician if not resolved, then document.

The math in this lesson1

Learners compute IBW and a 6–8 mL/kg tidal volume range for a care plan.
F-IF.2
In class: 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. · 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. · 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.
Materials: 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 documentation
Check: Care 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.

Practice check8

Answer each question, then check it. Nothing is recorded; this is your own practice.

Clinical Data and Patient Assessment / Therapeutic Procedures
1. A care plan for a patient with ARDS requires lung-protective ventilation. Which initial tidal volume target is most consistent with established evidence-based practice?
Evidence-Based Practice / Patient Care Planning
2. When annotating a care plan decision with supporting evidence, which source carries the highest direct applicability to respiratory therapy practice guidelines in the United States?
Emergency and Critical Care / Airway Management
3. A patient on mechanical ventilation develops sudden unilateral absent breath sounds and acute desaturation. After confirming adequate manual ventilation, the most important next diagnostic step is:
Airway Management / Equipment
4. Which endotracheal tube cuff pressure range is most widely cited to prevent both aspiration and tracheal mucosal ischemia?
Oxygen Therapy / Equipment Selection
5. A patient with stable COPD and mild hypoxemia requires controlled, precise oxygen delivery to avoid suppressing hypoxic drive. Which oxygen delivery device is most appropriate?
Mechanical Ventilation / Patient Assessment
6. During a ventilated patient's care, the respiratory therapist notices the ventilator is delivering breaths that do not match the patient's inspiratory effort, and the patient appears agitated. This most likely represents:
Documentation and Professional Practice
7. An equipment log in the capstone portfolio serves which primary professional purpose?
Oxygen Therapy / Equipment
8. A patient transitions from a non-rebreather mask to high-flow nasal cannula. Which characteristic of HFNC most distinguishes it clinically from the non-rebreather mask?
Record this lesson on my transcript. Sign in with your key and enrollment email to record lessons (enroll free if you have no key). This page stays open to read and practise.