PALS Provider Course: Post-Resuscitation & Team Dynamics

STABILIZATION AND POST-RESUSCITATION MANAGEMENT (PALS GUIDELINES)

 

Once a pediatric patient achieves Return of Spontaneous Circulation (ROSC) after cardiac arrest, the focus shifts to preventing recurrence, stabilizing organ function, and optimizing long-term neurological outcomes.

🚨 Key Goals of Post-Resuscitation Care:
✅ Optimize hemodynamics and oxygenation.
✅ Prevent secondary brain injury.
✅ Monitor for and treat organ dysfunction.
✅ Identify and treat the underlying cause of arrest.

 


1️⃣ IMMEDIATE PRIORITIES AFTER ROSC

🔹 Assess Airway, Breathing, Circulation (ABCs)
🔹 Continuous cardiac monitoring to detect arrhythmias.
🔹 Frequent neurologic exams to assess brain function.
🔹 Identify and treat the cause of arrest (H’s & T’s).

🚨 Prevent Recurrent Arrest:

  • Correct hypoxia, acidosis, electrolyte imbalances.
  • Provide inotropes if perfusion is poor.
  • Monitor closely for seizures or shock.
 

2️⃣ HEMODYNAMIC SUPPORT: OPTIMIZING PERFUSION

Goal: Maintain adequate blood pressure and organ perfusion

✅ Blood Pressure Targets (Mean Arterial Pressure – MAP):

  • Neonates: MAP >40 mmHg
  • Infants/Children: MAP >50 mmHg
  • Adolescents: MAP >60 mmHg

✅ Fluid Resuscitation (If Hypotensive):

  • Isotonic crystalloids (NS or LR) 10-20 mL/kg IV over 10-20 min.
  • Repeat as needed, but avoid fluid overload.

✅ Vasoactive Support (If Poor Perfusion Persists):

ConditionFirst-Line VasopressorAlternative Therapy
Hypotensive ShockEpinephrine or DopamineNorepinephrine
Cardiogenic ShockEpinephrine or DobutamineMilrinone
Septic ShockNorepinephrine (cold shock), Epinephrine (warm shock)Vasopressin (if refractory)

🚨 If fluid-resistant hypotension persists, start vasoactive medications EARLY!

 


3️⃣ RESPIRATORY SUPPORT: OPTIMIZING OXYGENATION & VENTILATION

✅ Avoid Hyperoxia:

  • Target SpO₂: 94-99% (use lowest FiO₂ to maintain oxygenation).
  • Hyperoxia (>100% SpO₂) increases oxidative stress and brain injury.

✅ Avoid Hypocapnia or Hypercapnia:

  • Target PCO₂: 35-45 mmHg (normocapnia).
  • Hypocapnia (PCO₂ <35) → Causes cerebral vasoconstriction and worsens brain ischemia.
  • Hypercapnia (PCO₂ >45) → Increases acidosis and worsens hemodynamics.

🚨 If intubated, use capnography to monitor end-tidal CO₂ (ETCO₂) and avoid over-ventilation.

 


4️⃣ TEMPERATURE CONTROL: TARGETED TEMPERATURE MANAGEMENT (TTM)

Goal: Prevent hyperthermia and consider cooling for neuroprotection

✅ Maintain normothermia (36-37.5°C) or consider therapeutic hypothermia (32-34°C) in select cases.
✅ Hyperthermia (>38°C) worsens neurological injury—use cooling blankets if needed.
✅ If cooling is initiated, maintain for 24-48 hours, then rewarm slowly (0.25°C/hr).

🚨 TTM is especially beneficial for comatose pediatric patients post-arrest.

 


5️⃣ NEUROLOGICAL MONITORING & SEIZURE MANAGEMENT

✅ Frequent Neurological Exams:

  • Assess for responsiveness, pupil reaction, and motor responses.
  • Use Glasgow Coma Scale (GCS) or Pediatric Coma Scale.

✅ Continuous EEG Monitoring:

  • High risk of seizures post-arrest (often non-convulsive).
  • Consider EEG if unexplained neurological deterioration occurs.

✅ Seizure Management:

  • First-line: Benzodiazepines (Lorazepam 0.1 mg/kg IV)
  • If persistent: Fosphenytoin, Levetiracetam, or Phenobarbital.

🚨 Seizures post-arrest worsen brain injury—treat aggressively!

 


6️⃣ MONITORING & LAB ASSESSMENT

✅ Frequent Monitoring (ICU Setting):

  • Vital signs (HR, BP, SpO₂, ETCO₂).
  • Continuous cardiac monitoring.
  • Neurological assessments (GCS, pupil reactivity).

✅ Laboratory Tests:

  • Arterial Blood Gas (ABG): Check for acidosis, PCO₂ levels.
  • Serum Lactate: Indicator of perfusion status.
  • Electrolytes: Monitor Na⁺, K⁺, Ca²⁺, Mg²⁺ (correct imbalances).
  • Glucose: Maintain blood glucose >70 mg/dL, treat hypoglycemia.
  • Liver/Kidney Function: Assess for multi-organ dysfunction.

🚨 Frequent labs are critical to track recovery and detect complications early!

 


7️⃣ IDENTIFY & TREAT UNDERLYING CAUSE (H’s & T’s)

🚨 Prevent recurrence by correcting the cause of arrest!

🔍 The H’s (Common Metabolic Causes)
🔹 Hypoxia → Optimize oxygenation, ventilation.
🔹 Hypovolemia → Fluid resuscitation (cautious in cardiogenic shock).
🔹 Hydrogen ion excess (Acidosis) → Correct underlying cause, bicarbonate if severe.
🔹 Hyperkalemia/Hypokalemia → Electrolyte correction.
🔹 HypoglycemiaGive dextrose (D10, D25).
🔹 Hypothermia → Rewarm patient if temp <35°C.

🔍 The T’s (Cardiac & Trauma Causes)
🔹 Tension pneumothorax → Needle decompression.
🔹 Tamponade (Cardiac) → Pericardiocentesis.
🔹 Toxins (Drug overdose, poisoning) → Administer antidotes.
🔹 Thrombosis (Pulmonary or Coronary) → Consider thrombolysis or ECMO if needed.

🚨 Identifying and treating the reversible cause is crucial for preventing another arrest!

 


8️⃣ SUMMARY: PEDIATRIC POST-RESUSCITATION CARE CHECKLIST

 
CategoryKey Actions
Hemodynamic SupportMaintain BP with fluids & inotropes (Epinephrine, Dopamine)
Respiratory SupportTarget SpO₂ 94-99%, PCO₂ 35-45 mmHg
Temperature ControlPrevent hyperthermia, consider TTM (32-34°C)
Neurological MonitoringContinuous EEG if comatose, treat seizures
Frequent Labs & ImagingABG, lactate, electrolytes, glucose, organ function tests
Identify & Treat CausesCorrect H’s & T’s to prevent recurrence


9️⃣ WHEN TO ESCALATE TO ECMO OR ADVANCED SUPPORT?

🚨 Consider ECMO (Extracorporeal Membrane Oxygenation) if:

  • Severe cardiogenic shock unresponsive to inotropes.
  • Refractory cardiac arrest despite CPR and epinephrine.
  • Massive pulmonary embolism or severe myocarditis.

🚨 Consider Neuroprognostication if:

  • No purposeful movement or brainstem reflexes after 72 hours.
  • Persistent seizures despite treatment.
 

🔟 FINAL TAKEAWAYS

✅ Post-resuscitation care is crucial for survival and neurological recovery.
✅ Hemodynamic and respiratory support should be carefully balanced.
✅ Prevent secondary brain injury with oxygen, temperature, and seizure control.
✅ Early detection and treatment of the underlying cause prevent recurrence.

🚑 Takeaway: Post-resuscitation stabilization is just as important as the initial resuscitation—proper management in this phase improves long-term outcomes!