Pediatric Advanced Life Support Cheat Sheet

10 min read

pediatric advanced life support cheat sheet serves as a quick‑reference guide for clinicians who manage critical emergencies in infants and children. This concise yet comprehensive overview condenses the essential PALS algorithms, drug dosages, and practical tips into a format that can be memorized or printed for rapid use during high‑stress situations. By mastering the content outlined below, healthcare providers can improve survival rates and reduce neurological injury in pediatric cardiac and respiratory arrests.

Introduction

The pediatric advanced life support cheat sheet is designed for rapid recall during a PALS emergency. This leads to it integrates the latest 2020 AHA guidelines with practical dosing tables, age‑specific airway strategies, and common pitfalls. Whether you are a pediatric resident, emergency physician, or a bedside nurse, this cheat sheet streamlines decision‑making, ensuring that each step—from initial assessment to post‑resuscitation care—is executed with confidence and precision.

Core Algorithm Overview

Primary Assessment (ABCs)

  1. Airway – Secure a patent airway; consider bag‑valve‑mask (BVM) ventilation with 100 % oxygen.
  2. Breathing – Assess respiratory effort, rate, and oxygen saturation; initiate supplemental oxygen as needed. 3. Circulation – Check pulse, heart rate, and perfusion; establish IV/IO access promptly.

Secondary Assessment - Disability – Evaluate neurologic status using the AVPU scale (Alert, Voice, Pain, Unresponsive).

  • Exposure – Fully undress the patient to identify injuries while preventing hypothermia.

Immediate Interventions

  • High‑flow oxygen (≥ 10 L/min) for all hypoxic patients.
  • Chest compressions at a ratio of 30:2 (compressions:ventilations) for children ≥ 1 year; 10:2 for infants.
  • Defibrillation – Use pediatric‑sized pads; deliver a single shock of 2 J/kg (monophasic) or 4 J/kg (biphasic) if ventricular fibrillation or pulseless VT is present.

Pediatric BLS Modifications

  • Compression depth: At least one‑third of the chest diameter (≈ 4 cm in infants, 5 cm in children).
  • Ventilation: Use a mask sized to the child’s age; give 1 breath every 3 seconds (20 breaths/min) for infants, 1 breath every 5 seconds (12 breaths/min) for older children.
  • Medication dosing: Weight‑based calculations dominate; always double‑check the dose before administration.

PALS Algorithm by Age Group

Neonates (0–28 days) - Primary cause: Asphyxia, meconium aspiration, congenital heart disease. - Key steps:

  1. Initiate warmth and drying.
  2. Provide positive pressure ventilation (PPV) with 21–100 % O₂.
  3. If no response after 30 seconds, start chest compressions (3:1 ratio).
  4. Administer epinephrine (0.01–0.03 mg/kg IV/IO) if heart rate remains < 60 bpm after adequate ventilation and compressions.

Infants (1 month–1 year)

  • Compression‑to‑ventilation ratio: 30:2 (single rescuer) or 15:2 (two rescuers).
  • Epinephrine dose: 0.01–0.03 mg/kg IV/IO; repeat every 3–5 minutes if needed.

Children (≥ 1 year)

  • Compression‑to‑ventilation ratio: 30:2 (single rescuer) or 15:2 (two rescuers). - Epinephrine dose: 0.01 mg/kg IV/IO (max 1 mg per dose); may increase to 0.1 mg/kg if no response after the first dose.

Medication Dosage Cheat Sheet

Drug Indication Dose (Weight‑Based) Route Comments
Epinephrine Cardiac arrest, severe bradycardia 0.02 mg/kg (max 0.01 mg/kg (max 1 mg) IV/IO Repeat every 3–5 min; dilute 1:10,000 for IV push
Amiodarone Refractory VT/VF 5 mg/kg (max 300 mg) IV Dilute in 20 mL D5W; give over 20–30 min
Lidocaine Pulseless VT/VF (alternative) 1 mg/kg (max 100 mg) IV Give over 5–10 min
Atropine Bradycardia with poor perfusion 0.5 mg) IV/IO Effective for vagally mediated bradycardia
Dextrose (20 % or 50 %) Hypoglycemia 2–4 g/kg (200–400 mg/kg) IV Check glucose after 15 min; consider repeat dosing
Sodium bicarbonate Severe acidosis (pH < 7.

All doses must be verified against the patient’s exact weight and the most recent PALS guidelines.

Common Pitfalls and Practical Tips

  • Weight errors: Use a calibrated pediatric scale

Ensuring a child’s safety during critical care demands precision and swift decision‑making, which is why understanding the nuances of the PALS algorithm becomes essential. In real terms, when approaching each age group, it’s crucial to tailor interventions to developmental stages—whether that means adjusting compression ratios or selecting appropriate medications. Always prioritize airway management first, then assess responsiveness, followed by timely pharmacologic support. Consider this: remember, accurate measurements and consistent team communication are the pillars that turn complex protocols into effective care. By internalizing these strategies, healthcare providers can work through challenging scenarios with confidence and improve outcomes for vulnerable patients. Conclusion: Mastering PALS guidelines and medication protocols not only streamlines responses but also reinforces the importance of vigilance and teamwork in pediatric emergency situations.

The management of pediatric respiratory and cardiac emergencies requires precise attention to compression-to-ventilation ratios and accurate medication administration. Which means for medications, weight-based dosing is critical, with ratios like 30:2 or 15:2 guiding IV/IO administration. , 1 mg IV/IO for epinephrine) and monitor for side effects. Worth adding: g. Precision in dosing and timing directly impacts outcomes, emphasizing vigilance and adaptability. Always adhere to maximum limits (e.Adjustments every 3–5 minutes ensure optimal oxygenation and hemodynamic stability, preventing complications such as hypoxia or arrhythmias. Dilute medications appropriately, maintain IV stability, and reassess responses promptly. Proper execution minimizes risks and enhances efficacy. On the flip side, consistent team communication ensures coordinated care. So naturally, verify patient weight accurately, consider comorbidities, and follow PALS protocols. Conclusion: Mastery of these principles ensures safe, effective intervention in high-stakes scenarios.

Advanced Considerations for the Experienced Provider

1. Rhythm‑Specific Strategies

Rhythm First‑Line Pharmacology Dose & Route Re‑assessment Interval
Ventricular fibrillation / pulseless VT Epinephrine (as above) + Amiodarone 5 mg/kg (max 300 mg) IV/IO; may repeat 2 mg/kg After each 2‑minute CPR cycle; consider repeat amiodarone 2 mg/kg if refractory
Asystole Epinephrine only 0.01 mg/kg IV/IO Every 3–5 minutes of CPR
Pulseless electrical activity (PEA) Epinephrine + treat reversible causes (5 H’s/5 T’s) Same as asystole Every 3–5 minutes; address hypovolemia, tension pneumothorax, tamponade, etc.
Bradycardia with poor perfusion (<60 bpm) Epinephrine (or Atropine if AV nodal block suspected) Epinephrine 0.Because of that, 01 mg/kg IV/IO; Atropine 0. 02 mg/kg (max 0.

2. Managing the “5 H’s/5 T’s” in Real Time

  • Hypovolemia – Rapid infusion of isotonic crystalloid (20 mL/kg) followed by blood products if hemorrhagic.

  • Hypoxia – Secure airway early; consider supraglottic airway if endotracheal intubation is delayed.

  • Hydrogen ion (acidosis) – Sodium bicarbonate only when pH < 7.1 and after adequate ventilation Easy to understand, harder to ignore..

  • Hyper-/hypokalemia – Check point‑of‑care electrolytes; treat hyper‑K⁺ with calcium gluconate, insulin/glucose, and nebulized albuterol.

  • Hypothermia – Initiate active re‑warming (warm blankets, heated humidified gases, warmed IV fluids) once core temperature < 34 °C.

  • Tension pneumothorax – Immediate needle decompression (2‑3 mm needle, 5th intercostal space, mid‑axillary line) followed by chest tube placement Small thing, real impact..

  • Tamponade – Pericardiocentesis if ultrasound or clinical suspicion is high Simple, but easy to overlook..

  • Toxins – Consider antidotes (e.g., naloxone for opioid overdose, calcium for calcium channel blocker toxicity) while maintaining CPR.

  • Thrombosis – If suspicion for massive pulmonary embolus, consider thrombolysis (tPA 0.1 mg/kg bolus, max 10 mg) after weighing risk/benefit.

3. Airway Adjuncts and Ventilation Nuances

  • Bag‑Mask Ventilation (BMV): Use a pediatric‑size mask with a tight seal; deliver 10–12 breaths/min (1 breath every 5 seconds). Watch for gastric insufflation—if present, insert a nasogastric tube and decompress.
  • Supraglottic Airway (SGA): Laryngeal mask airway (LMA) sizes 1–2.5 are appropriate for children 5 kg‑20 kg. Confirm placement with capnography.
  • Endotracheal Intubation: Prefer rapid sequence intubation (RSI) with ketamine (1–2 mg/kg IV) + succinylcholine (1–2 mg/kg IV) or rocuronium (0.6 mg/kg IV). Verify tube depth using chest X‑ray or ultrasound; secure immediately.
  • Ventilation Settings Post‑ROSC: 5–6 mL/kg tidal volume, respiratory rate 20–30 breaths/min, FiO₂ titrated to SpO₂ > 94 % (or 92 % in cyanotic heart disease). Use pressure‑controlled modes if available to limit peak pressures.

4. Post‑Resuscitation Care

  1. Hemodynamic Optimization

    • Maintain MAP > 65 mm Hg (or age‑adjusted target).
    • Initiate vasoactive support (e.g., norepinephrine 0.05–0.1 µg/kg/min) if hypotension persists despite fluids.
  2. Neuroprotection

    • Target temperature 33–36 °C for 24–48 hours (therapeutic hypothermia) in comatose patients after ROSC, per institutional protocol.
    • Continuous EEG monitoring for seizure detection; treat seizures promptly with phenobarbital or levetiracetam.
  3. Metabolic Stabilization

    • Re‑check glucose, electrolytes, lactate, and arterial blood gases every 30 minutes for the first 2 hours.
    • Correct hypoglycemia (< 70 mg/dL) with 2–4 g/kg dextrose bolus, then maintain infusion if needed.
  4. Cardiac Evaluation

    • Obtain a 12‑lead ECG within 30 minutes of ROSC.
    • Echocardiography to assess ventricular function, pericardial effusion, and structural anomalies.
  5. Family Communication

    • Provide clear, compassionate updates every 5–10 minutes during the arrest.
    • After ROSC, schedule a structured debrief with the family, outlining next steps, prognosis, and potential need for intensive care.

5. Simulation‑Based Mastery

  • Frequency: Conduct high‑fidelity pediatric cardiac arrest simulations at least quarterly.
  • Focus Areas: Weight verification, medication preparation under pressure, role allocation (compressions, airway, meds, recorder).
  • Debriefing: Use video review to highlight timing of epinephrine, compression depth, and pauses. point out “no‑flow” time minimization.

6. Documentation Essentials

Element Detail
Time of arrest Exact clock time (e.g., 14:23)
Initial rhythm VF, VT, PEA, asystole, bradycardia
Compression quality Depth (cm), rate (cpm), fraction (%)
Medication log Drug, dose (mg/kg), route, exact time administered
Defibrillation Energy (J/kg), number of shocks
ROSC Time of return of spontaneous circulation, initial vitals
Post‑ROSC interventions Airway, vasoactive agents, temperature management
Team members Names and roles for accountability

Accurate, real‑time documentation not only satisfies legal and quality‑improvement mandates but also facilitates seamless handoff to the ICU team.


Putting It All Together: A Sample Flow for a 12‑kg Infant

  1. Recognition – Unresponsive, no pulse, agonal respirations.
  2. Immediate actions (0–60 s)
    • Activate code, assign a recorder.
    • Start 30:2 compressions (≈100 cpm).
    • Open airway, begin BMV with 100 % O₂.
  3. First medication (≈90 s) – Epinephrine 0.12 mg IV/IO (0.01 mg/kg).
  4. Re‑evaluate rhythm after 2 min – If still pulseless, repeat epinephrine, consider amiodarone if VF/VT.
  5. After 4 min – If ROSC achieved, transition to 15:2 compressions while securing airway, then to continuous compressions with asynchronous ventilations.
  6. Post‑ROSC – Initiate targeted temperature management, obtain labs, start glucose infusion if needed, and transfer to PICU.

Bottom Line

The success of pediatric resuscitation hinges on three intertwined pillars: precision, speed, and teamwork. By mastering weight‑based dosing, adhering to age‑specific compression‑ventilation ratios, and maintaining a relentless focus on reversible causes, clinicians can dramatically improve survival and neurologic outcomes. Continuous practice, vigilant monitoring, and clear communication transform the complex PALS algorithm from a checklist into a life‑saving rhythm that every provider can execute under pressure.

Conclusion

In the high‑stakes environment of pediatric emergencies, the margin for error is razor‑thin. In practice, the detailed medication tables, compression guidelines, and practical pearls presented here provide a roadmap that, when internalized and rehearsed, empower clinicians to act decisively and safely. Still, embracing a culture of regular simulation, meticulous documentation, and compassionate family engagement ensures that each resuscitation not only follows the best evidence‑based practices but also evolves through learning and reflection. When all is said and done, the integration of these strategies translates into higher rates of return of spontaneous circulation, better neurologic preservation, and, most importantly, more children returning home after a cardiac or respiratory crisis The details matter here. Which is the point..

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