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Pediatric Drowning / Submersion Injury

Why it's an exemplar

A high-yield senior case because the clinical problem changes shape: the team must move from pediatric post-submersion respiratory failure to airway management, then to post-intubation hypoxemia, then to PALS bradycardia with poor perfusion. The design rewards shared mental models and early help-seeking.

Author
Dr. Katie Maguire and Dr. Nicole Holm
Year
2023
Chief complaint
Respiratory distress after pool submersion
Learners
PGY2, PGY3, PGY4
Milestones
PC2, PC3, ICS1, SBP2
Source
EM Sim Cases (emsimcases.com): Pediatric Drowning

Objectives

Source attribution

Original case from EM Sim Cases (emsimcases.com): Pediatric Drowning under Creative Commons Attribution-ShareAlike 4.0 International License . Adapted for the WUEM Simulation curriculum from the emsimcases.com source page and provided case packet.

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Scenario summary

A previously healthy three-year-old wandered into the deep end of a backyard pool and was found submerged. The parents brought her to the surface unconscious and coughing up white frothy material. EMS provided oxygen and transported her to a tertiary emergency department with PICU access.

On ED arrival, the child is obtunded with respiratory distress, persistent hypoxemia, and foam in the airway. The team should apply monitors, obtain pediatric resuscitation resources, begin warming, call for help, and prepare for a difficult airway. After intubation, the case deliberately shifts into post-intubation hypoxemia, then bradycardia with poor perfusion requiring PALS-directed CPR and epinephrine.

Patient chart

FieldDetails
PatientLyla, 3-year-old female, 16 kg
Presenting complaintRespiratory distress after pool submersion
Initial vitalsT 34.0 C, HR 150, BP 85/40, RR 40, SpO2 90% with assisted breaths on 100% FiO2
Neurologic statusGCS 8, eyes closed, groans to pain, localizes, poor tone
HistoryPreviously healthy, born at 38 weeks by spontaneous vaginal delivery
Exam cuesFrothy foam in the airway, noisy chest, bilateral crackles and wheeze, cool clammy skin, no signs of trauma
Initial equipmentPediatric manikin, monitor, defibrillator pads, pediatric airway cart, capnography, warming equipment, PALS algorithm

Case progression

StatePatient statusExpected learner actionsTriggers and modifiers
Baseline post-submersion respiratory distressSinus rhythm, HR 150, BP 85/40, RR 38, SpO2 90% with BVM, T 34 C, GCS E1V2M5IV access, monitors, glucose, pediatric crash cart, core temperature, active warming, high-flow oxygen or BiPAP, labs, chest X-ray, PICU/ECMO help, bronchodilators if bronchospasm is recognizedPositive pressure improves SpO2 to about 93%. Progress when the team decides to intubate.
Definitive airwayHR 150, BP 85/40, RR 38, SpO2 94% with BVM, T 36 C, GCS E1V2M5Preoxygenate with good seal and 100% FiO2, recognize difficult airway with foam, communicate airway plan, use weight-based tube and medications, confirm with EtCO2 and chest X-ray, order post-intubation sedationInadequate preoxygenation drops SpO2 rapidly. Regardless of first-pass setup, SpO2 falls to 80% after intubation.
Post-intubation hypoxemiaHR 150, BP 85/40, RR 25 ventilated, SpO2 80% improving to 85%, sedatedConfirm 100% FiO2, verify ETT position, suction tube, assess obstruction, pneumothorax, bronchospasm, disconnect from ventilator and bag, adjust PEEP, deepen sedation or paralysis, repeat gas and CXR, decompress stomachSecretions through ETT improve SpO2 to 87%. Manual BVM, bronchodilators, higher PEEP, and deeper sedation improve saturations.
Bradycardia with poor perfusionHR 50, BP 85/40, RR 25 ventilated, SpO2 88% on 100% FiO2, sedatedRecognize pediatric bradycardia with poor perfusion, start CPR for HR less than 60, give PALS epinephrine 0.01 mg/kg IV, consider atropine 0.02 mg/kg, call PICU and code ECMOAt the first pulse check after CPR, HR increases to 100 and the consulting team arrives.

Design choices

The airway foam is a deliberate cue. It signals drowning physiology, but the facilitator should not let learners spend the case suctioning indefinitely. Positive pressure ventilation improves the airway view, while persistent suctioning produces more foam and delays the real work.

The progression also creates a post-intubation fixation trap. The debrief can explore whether the team used a shared approach such as DOTTSS: disconnect, oxygen, tube, tweak the ventilator, sonography, squeeze, and sedation/paralysis.

Debrief focus

Use the debrief to connect clinical management with crisis resource management:

Shared mental model language is central. Ask what the leader summarized, what the team heard, and how the plan changed as hypoxemia persisted.

Facilitator notes

The complete DOCX includes laboratory results, references, room setup, medication and airway sizing reminders, and expanded facilitator debriefing prompts. The source case also includes focused teaching material on drowning physiology, surfactant washout, laryngospasm, negative pressure pulmonary edema, lung-protective ventilation, post-intubation hypoxemia troubleshooting, and ECLS referral.

Source materials