C-NPT study materials
C-NPT study resources

C-NPT cheat sheet

C-NPT · Keep the key ideas within reach.

Quick reference

Patient Assessment and Stabilization for Transport

  • Pediatric hypotension: systolic <70 mmHg in term neonates, <70 + (2 × age in years) for children 1–10 years, and <90 mmHg for children over 10 years.

  • Tachycardia is the earliest compensated sign of shock in children; hypotension is a late finding because vasoconstriction preserves blood pressure until decompensation.

  • Shock index = heart rate ÷ systolic blood pressure; a value >1.0 in a child suggests occult or decompensated shock (normal ≈0.7–0.8).

  • Uncuffed ETT internal diameter = (age in years ÷ 4) + 4; cuffed = (age ÷ 4) + 3.5; oral insertion depth (cm) ≈ 3 × tube size.

  • Estimated weight for ages 1–10 years = (age × 2) + 8 kg; a length-based tape is used for children under 12 years when age is unknown.

  • Infants are obligate nasal breathers for the first months of life, and the narrowest point of the pediatric airway is the subglottic cricoid ring.

  • Pediatric trauma scene time target is under 10 minutes; airway, hemorrhage control, and spinal motion restriction take priority over on-scene procedures.

  • Pre-transport stabilization bundle: airway secured and confirmed, vascular access, glucose and temperature checked, monitors attached, and referring records plus imaging copied.

  • Transport risk is judged on patient physiology, the referring team's capability, and time/distance to definitive care; a deteriorating patient is diverted to the nearest appropriate facility.

Quick reference

Respiratory Care and Mechanical Ventilation

  • Tidal volume targets: 4–6 mL/kg predicted body weight in neonatal and pediatric ARDS, 6–8 mL/kg when lung mechanics are normal; keep plateau pressure below about 28–32 cmH2O in PARDS.

  • PEEP is typically 5 cmH2O and may be raised to 8–10 cmH2O in PARDS with escalating FiO2; high PEEP can reduce venous return and cause hypotension.

  • Time constant = compliance × resistance; allow at least three time constants of expiratory time to prevent air trapping and auto-PEEP.

  • Target SpO2 90–95% in preterm infants at risk of retinopathy of prematurity and 92–97% for most other neonates and children.

  • High-frequency oscillatory ventilation: amplitude (power) adjusts PaCO2 while mean airway pressure and FiO2 adjust oxygenation; the expiratory phase is active.

  • Inhaled nitric oxide for PPHN starts at 20 ppm; wean FiO2 before weaning nitric oxide to avoid rebound pulmonary hypertension.

  • Surfactant volumes: poractant alfa 2.5 mL/kg initially (1.25 mL/kg for repeat doses), beractant 4 mL/kg; give early in RDS by INSURE or LISA technique.

  • Sudden desaturation with asymmetric chest expansion and unilateral decreased breath sounds suggests pneumothorax; needle decompression is at the 2nd intercostal space, midclavicular line.

  • Permissive hypercapnia (PaCO2 45–60 mmHg with pH >7.20) is acceptable in selected ventilated infants to limit ventilator-induced lung injury.

Quick reference

Cardiovascular Physiology, Monitoring, and Hemodynamic Support

  • Neonatal cardiac output is about 200–250 mL/kg/min; CO = HR × SV, and neonates depend heavily on heart rate because stroke volume is relatively fixed.

  • Hypotension thresholds: mean arterial pressure below gestational age in weeks for neonates; systolic <60 (term neonate), <70 (infant), <70 + 2×age (1–10 years), <90 (>10 years).

  • Fluid bolus is 10–20 mL/kg isotonic crystalloid with reassessment after each bolus; 40–60 mL/kg may be required in septic shock, but give cautiously with cardiac dysfunction or DIC.

  • Epinephrine 0.05–0.3 mcg/kg/min for fluid-refractory shock; norepinephrine 0.05–0.3 mcg/kg/min for warm, vasodilated shock.

  • Prostaglandin E1 at 0.05 mcg/kg/min maintains ductal patency in ductal-dependent lesions; apnea occurs in roughly 10–12%, so airway readiness is mandatory.

  • Cyanotic ductal-dependent lesions (pulmonary atresia, critical tetralogy) require PGE1; ductal-dependent systemic lesions (HLHS, interrupted aortic arch, critical coarctation) present in shock with weak or absent femoral pulses.

  • Resuscitation endpoints include central venous oxygen saturation >70%, falling lactate, and restored perfusion; lactate >2 mmol/L indicates hypoperfusion.

  • Capillary refill >2 seconds, mottling, and cool extremities are early markers of compensated shock and are treated before hypotension appears.

Quick reference

Neurological and Neurodevelopmental Assessment

  • Pediatric GCS: eye 4, verbal 5, motor 6; a modified verbal scale is used for children under 2 years.

  • Cerebral perfusion pressure = mean arterial pressure − intracranial pressure; preventing hypoxia and hypotension preserves CPP in traumatic brain injury.

  • Therapeutic hypothermia for HIE: 33.5°C for 72 hours started within 6 hours of birth in infants ≥36 weeks with moderate-to-severe encephalopathy, then rewarm at about 0.5°C/hour.

  • Neonatal seizures are often subtle (apnea, eye deviation, cycling movements) or electrographic only; phenobarbital 20 mg/kg IV is first-line.

  • Sarnat stages I (mild), II (moderate), and III (severe) classify HIE by level of consciousness, tone, primitive reflexes, and autonomic function.

  • Pain in neonates and nonverbal children is scored with PIPP, N-PASS, or FLACC; physiologic signs alone are unreliable indicators of pain.

  • Spinal motion restriction: correctly sized rigid collar, log-roll with in-line stabilization, and padding under the torso to neutralize the prominent occiput in young children.

  • Signs of raised intracranial pressure in infants include a bulging fontanelle, split sutures, sunsetting eyes, and irritability progressing to lethargy; avoid hip flexion and neck rotation during transport.

Quick reference

Fluid, Electrolyte, Nutrition, and Gastrointestinal Management

  • Holliday-Segar maintenance: 4 mL/kg/h for the first 10 kg, plus 2 mL/kg/h for the next 10 kg, plus 1 mL/kg/h for each kilogram above 20.

  • Term neonates begin at 60–80 mL/kg/day on day 1 and advance 10–20 mL/kg/day; preterm infants often start near 80 mL/kg/day with careful sodium restriction.

  • Hypoglycemia thresholds: <45 mg/dL in neonates and <60 mg/dL in children; treat with D10W 2 mL/kg (0.2 g/kg) IV and recheck glucose in 30 minutes.

  • Glucose infusion rate (mg/kg/min) = (% dextrose × mL/h) ÷ (6 × weight in kg); typical neonatal target is 4–8 mg/kg/min.

  • Daily electrolytes: sodium 2–4 mEq/kg, potassium 1–3 mEq/kg; correct potassium no faster than 0.5–1 mEq/kg/h with continuous cardiac monitoring.

  • Suspected NEC: stop feeds, nasogastric decompression, cultures, and broad-spectrum antibiotics; pneumatosis intestinalis is the radiographic hallmark.

  • Parenteral nutrition is not stopped abruptly; taper the rate or provide dextrose to prevent rebound hypoglycemia.

  • Jaundice appearing within the first 24 hours is pathologic and requires urgent bilirubin measurement; physiologic jaundice appears after 24 hours.

Quick reference

Pharmacology and Medication Safety in Transport

  • Epinephrine IV/IO 0.01 mg/kg (0.1 mL/kg of 1:10,000) every 3–5 minutes; the endotracheal dose is 0.1 mg/kg of 1:1,000.

  • Adenosine 0.1 mg/kg rapid IV push (maximum 6 mg), then 0.2 mg/kg (maximum 12 mg), each followed by an immediate saline flush for SVT.

  • Amiodarone 5 mg/kg IV/IO (maximum 300 mg) for VF or pulseless VT; infuse over 20–60 minutes when a pulse is present.

  • Dexamethasone 0.6 mg/kg (maximum 10 mg) once for croup; nebulized racemic epinephrine 0.05 mL/kg of 2.25% solution (maximum 0.5 mL).

  • Sedation and paralysis doses: fentanyl 1–2 mcg/kg, midazolam 0.05–0.1 mg/kg, ketamine 1–2 mg/kg, rocuronium 0.6–1.2 mg/kg.

  • Naloxone 0.1 mg/kg IV/IM (maximum 2 mg) reverses opioid-induced respiratory depression; monitor for re-narcotization as its duration is shorter than most opioids.

  • High-alert medications (opioids, insulin, heparin, concentrated potassium, inotropes) require an independent second check and smart-pump limits.

  • Caffeine citrate 20 mg/kg loading dose with 5–10 mg/kg/day maintenance reduces apnea of prematurity.

Quick reference

Infectious Disease, Thermoregulation, and Environmental Physiology

  • The neutral thermal environment minimizes oxygen consumption; target axillary temperature is 36.5–37.5°C.

  • Heat is lost by evaporation, conduction, convection, and radiation; preterm infants lose heat fastest because of a large surface-area-to-mass ratio and thin skin.

  • Hypothermia raises oxygen consumption and causes hypoglycemia and metabolic acidosis; counter with plastic wrap, a hat, warm blankets, warm IV fluids, and heated humidified gases.

  • Transmission precautions: contact for MRSA, VRE, and C. difficile; droplet for influenza and pertussis; airborne for tuberculosis, measles, and varicella with an N95 respirator.

  • Early-onset neonatal sepsis is most often group B Streptococcus or E. coli; empiric therapy is ampicillin plus gentamicin, with cefotaxime added for meningitis.

  • As altitude rises, barometric pressure and alveolar oxygen tension fall; increase FiO2 and flow, and remember that trapped gas expands, overinflating ETT cuffs and pneumothoraces.

  • Therapeutic hypothermia at 33.5°C is the only planned exception to normothermia; all other transported infants are kept strictly normothermic.

Quick reference

Transport Equipment, Vehicle Safety, and Team Operations

  • Cylinder duration (min) = (gauge pressure in psi − 200) × cylinder factor ÷ flow in L/min; cylinder factors are 0.28 for an E cylinder and 3.14 for an M cylinder.

  • The isolette or stretcher is secured with four-point straps, and every monitor, pump, and cylinder is strapped down because unrestrained items become projectiles at roughly 10 G deceleration.

  • Pre-transport equipment check: two oxygen sources, two suction devices, bag-valve-masks in neonate/infant/child sizes, and a charged defibrillator.

  • All occupants are restrained whenever the vehicle is moving; no provider stands or rides unsecured in the patient compartment.

  • Motor vehicle crashes are the leading cause of injury during medical transport; driver fatigue and excessive speed are major contributors, so lights and sirens are used only when clinically justified.

  • Structured communication with medical control and the receiving team uses SBAR: Situation, Background, Assessment, Recommendation.

  • Air medical operations require a safety briefing, rotor clearance discipline for hot loading, ear and eye protection, and adjustment of oxygen delivery for altitude.

Quick reference

Professional Practice, Communication, Ethics, and Patient/Family Advocacy

  • EMTALA requires stabilizing treatment and an appropriate transfer, documented by physician certification of benefit and acceptance from the receiving facility.

  • Informed consent is obtained from a parent or guardian; an emergency exception applies when delay would risk life or limb.

  • Core ethical principles - beneficence, nonmaleficence, autonomy, and justice - guide allocation of scarce transport resources and decisions about futile transfer.

  • Family-centered care includes offering family presence, developmentally supportive care with reduced light and noise and clustered handling, and shared decision-making.

  • Transport documentation records dispatch, arrival, departure, and handoff times, vital sign trends, interventions, medications, and receiving-team acceptance.

  • Closed-loop communication and explicit role assignment (crew resource management) reduce error during high-stress transports.

  • Use trained interpreters and health-literate materials; children are never used as interpreters for consent or clinical discussions.

  • Critical events and near misses are debriefed and reported through the quality and safety system for morbidity and mortality review.