FREE FP-C Study Guide 2026: A Complete, IBSC-Aligned Walkthrough

This free FP-C study guide walks through the highest-yield content the IBSC Certified Flight Paramedic exam tests, organized to mirror the ten official domains of the IBSC Detailed Content Outline.^[1] It teaches the advanced critical care you already know — through the lens of the air medical and critical-care transport environment.

It is interactive, not a wall of text: every module has worked transport scenarios, labeled diagrams, dose and lab tables, and built-in flashcards. The thing that makes the FP-C different from a paramedic certification is the flight physiology — the gas laws, the classifications of hypoxia, altitude effects, and aircraft safety — so we teach those first and weave them through every system.

Read it module by module, then round out your prep with our practice questions and flashcards. If you are a flight nurse rather than a paramedic, see our companion CFRN study guide — the same transport medicine at the BCEN nurse scope. The FP-C certifies the paramedic who can deliver advanced critical care safely in the back of a moving aircraft.

FP-C Exam Snapshot

IBSC builds the FP-C around ten domains. Airway, Anesthesia & Analgesics (15%) is the single largest, followed by Cardiac and Medical Emergencies (13% each) and Trauma/Burn (12%).

To keep the material coherent we teach the ten official domains in six study modules — for example, the two flight-specific domains (Safety and Transport, Flight Physiology) are taught together in Module 1. Budget your study toward the heaviest domains, but never skip the flight physiology — it is unique to this credential.^[1]

Percentages are the share of the 110 scored items and are rounded, so they may not sum to exactly 100. The order of domains in the IBSC outline does not reflect importance.^[1]

How the FP-C Is Built: the IBSC Blueprint

The FP-C is built from a role-delineation (practice-analysis) study of what flight and critical-care transport paramedics actually do, which IBSC turns into the Detailed Content Outline. Every scored item maps to one of the ten domains above. The exam is criterion-referenced: there is no curve — you must answer 73 of the 110 scored items correctly.^[1]

What sets the FP-C apart from an entry-level paramedic exam is that it tests advanced critical-care judgment plus the physics and logistics of moving a critically ill patient by air. A STEMI is still a STEMI — but now the cabin is loud, cold, low-pressure, and vibrating, and you are often the most experienced clinician on board. Keep that frame on every question: what does altitude, the environment, and the transport timeline add?

Safety, Transport & Flight Physiology

This module teaches the two flight-specific IBSC domains together: Safety and Transport (9 items, 8%) and Flight Physiology (7 items, 6%).^[1] They are the heart of what makes you a flight paramedic rather than a ground medic. Master the gas laws and the four classifications of hypoxia — they appear here and reappear inside every other domain.

Aircraft Operations & Scene Safety

Safety is always the first priority. A helicopter landing zone should be roughly 100 × 100 ft, level, firm, and free of obstructions, wires, and loose debris, with all hazards communicated to the pilot.

Approach a rotor-wing aircraft from the front, in the pilot’s view, never from the rear (the tail rotor) or the uphill side, and keep all equipment low. Understand density altitude — hot, high, humid air thins the air and reduces available lift precisely when the payload is heaviest, shrinking the takeoff safety margin. Know emergency procedures (fire, decompression, inadvertent IMC) and survival techniques.

CRM, Risk Assessment & Personal Wellness

Crew resource management flattens the authority gradient so any crew member can voice a safety concern in real time — the opposite of a newer medic staying silent about a hazard out of intimidation. It pairs with a verbal team risk assessment before every mission and with personal-readiness tools: the IMSAFE checklist for fitness for duty and the DEATH mnemonic for self-imposed stressors (Drugs, Exhaustion, Alcohol, Tobacco, Hypoglycemia/Hypoxia). Closed-loop, read-back communication over cabin noise prevents lost information.^[3]

The Gas Laws of Flight

Several gas laws govern what happens to a patient as the aircraft changes altitude. Boyle’s law ($P_1 V_1 = P_2 V_2$) is the single highest-yield: at a constant temperature, pressure and volume are inversely related, so as the aircraft climbs and ambient pressure falls, trapped gas expands. A pneumothorax, bowel gas, sinus and middle-ear air, air splints, an ET cuff, and an IABP balloon all enlarge.^[3]

Dalton’s law ($P_{total} = P_1 + P_2 + \dots + P_n$) explains altitude hypoxia: oxygen is still 21% of the air, but as total barometric pressure falls, the partial pressure of oxygen falls with it, so less oxygen is driven into the blood. Henry’s law ($C = k\,P_{gas}$) says dissolved gas is proportional to its partial pressure — as pressure falls, dissolved nitrogen comes out of solution, the mechanism of decompression sickness.^[3]

Hypoxia, Stressors & Altitude Injuries

The FP-C tests the four classifications of hypoxia cold. Anticipate the falsely reassuring SpO₂ in hypemic (anemic) hypoxia — carbon monoxide binds hemoglobin with ~200–250× the affinity of oxygen, so the patient is critically hypoxic while the pulse oximeter reads high.^[7] Histotoxic hypoxia (cyanide, hydrogen sulfide) means the cells cannot use the oxygen at all.

The transport environment also imposes the recognized stressors of flight — hypoxia, barometric (dysbarism) changes, thermal changes (roughly a 2 °C drop per 1,000 ft, feeding the lethal triad), decreased humidity, noise, vibration, fatigue, gravitational (G) forces, spatial disorientation, and flicker vertigo. Positive Gz forces pool blood toward the feet, reducing cerebral and retinal perfusion. Know the time of useful consciousness, which shortens sharply with altitude after a sudden loss of cabin oxygen.^[3]

Airway, Anesthesia & Analgesics

Airway is the largest single domain at 17 items (15%).^[1] It covers airway assessment, rapid sequence intubation, the failed/surgical airway, RSI pharmacology, mechanical ventilation, and capnography. This is where the flight paramedic’s advanced skill set lives, performed without an anesthesiologist to call.

Airway Assessment & the Difficult Airway

Predict the difficult airway before you commit. Use the LEMON assessment (Look, Evaluate 3-3-2, Mallampati, Obstruction, Neck mobility) and always have a rescue plan.

When the laryngoscopic view is poor, a bougie can be passed under the epiglottis (Grade III view) and the tube railroaded over it, and the BURP maneuver (backward, upward, rightward pressure on the thyroid cartilage) brings an anterior glottis into view. Video laryngoscopy sees around the airway curvature. Be ready for a surgical airway (cricothyrotomy) when you cannot intubate or oxygenate.^[8]

Rapid Sequence Intubation (the 7 P’s)

Rapid sequence intubation follows the 7 P’s — a memorized, ordered sequence that prevents missed steps under pressure. Prepare with a SOAP-ME check, preoxygenate with apneic oxygenation to buy desaturation time, induce and paralyze in rapid succession with minimal positive-pressure ventilation (to limit gastric insufflation and aspiration), intubate, and confirm with waveform capnography — the gold standard in a moving, noisy cabin where breath sounds are unreliable.^[8]

RSI Pharmacology

Match the agent to the patient. Ketamine supports blood pressure and bronchodilates (good for shock or asthma); etomidate is hemodynamically stable but can transiently suppress adrenal cortisol. For paralysis, succinylcholine has the fastest onset but is contraindicated in major burns or crush injury more than ~24–72 hours old, denervating disease, prolonged immobilization, and hyperkalemia (it triggers a lethal potassium efflux) — use rocuronium instead, which is reversible with sugammadex.^[8]

Mechanical Ventilation & Capnography

Set the ventilator for the pathology. Use lung-protective low tidal volumes (~6 mL/kg ideal body weight) in ARDS, titrate PEEP to oxygenation, and avoid breath-stacking in obstructive disease (asthma, COPD) by allowing a longer expiratory time.

Grade oxygenation impairment with the P/F ratio (≤100 is severe ARDS). Capnography guides ventilation continuously — a sudden loss of waveform means a dislodged or obstructed tube, a circuit disconnect, or arrest.^[10]

Cardiac & Medical Emergencies

This module groups two of the heaviest domains: Cardiac (14 items, 13%) and Medical Emergencies (14 items, 13%) — together over a quarter of the scored exam.^[1] The flight paramedic must read a 12-lead instantly, manage shock and circulatory support devices, and stabilize endocrine, septic, and toxicologic emergencies en route to definitive care.

12-Lead Interpretation & ACS

STEMI transport is a “time is muscle” mission — give aspirin, manage pain and oxygenation, and move to PCI (door-to-balloon ≤90 min). For an inferior STEMI (II, III, aVF — usually a right coronary artery occlusion), obtain a right-sided ECG (V4R): right-ventricular involvement makes the patient preload-dependent, so avoid nitroglycerin.^[4] Tall R waves with ST depression in V1–V3 suggest a posterior MI — confirm with posterior leads V7–V9. Verify standard calibration (1 mV = 10 mm) before judging amplitudes, and know that a normal QRS is <120 ms.

Shock, Heart Failure & Mechanical Support

Classify shock fast — hypovolemic, cardiogenic, distributive (septic, anaphylactic, neurogenic), and obstructive (tamponade, tension pneumothorax, massive PE) — and treat the cause while keeping the mean arterial pressure at 65 mmHg or higher. Norepinephrine is the first-line vasopressor in most shock states. The flight crew may transport mechanical circulatory support — an IABP (inflates in diastole, deflates in systole), an Impella, an LVAD, or ECMO — and must understand the basic physiology, alarms, and the Boyle’s-law effect of altitude on an air-filled IABP balloon.^[10]

Endocrine, Sepsis & Toxicology

In DKA, give IV isotonic fluids first (these patients are profoundly volume-depleted), then an insulin infusion, then potassium — and hold insulin if potassium is below 3.3 mEq/L. Recognize and treat sepsis early — cultures, broad-spectrum antibiotics within the hour, balanced fluids, and norepinephrine to a MAP ≥65 mmHg. In toxicology, support the ABCs and use antidotes where indicated (naloxone for opioids, sodium bicarbonate for TCA overdose, hydroxocobalamin for cyanide). Watch for extravasation when running a vasopressor through a peripheral line.^[8]

Lab Values & Blood Products

The FP-C expects fluency with the labs that drive transport decisions — a CBC (hemoglobin, platelets), a coagulation panel (PT/INR, aPTT), a BMP (potassium, sodium, glucose, renal function), an ABG (acid-base, oxygenation), and a cardiac panel (troponin, lactate). In hemorrhage, favor balanced blood products (packed cells, plasma, and platelets in balanced ratios) over large-volume crystalloid, which dilutes clotting factors and worsens the lethal triad.^[8]

Neurological & Trauma/Burn

This module groups Neurological (12 items, 11%) and Trauma/Burn (13 items, 12%).^[1] The transport theme throughout is preventing secondary injury — protecting the brain and spinal cord, controlling hemorrhage, and breaking the lethal triad — while moving fast to definitive care.

TBI, Stroke & Neuroprotection

In traumatic brain injury, the enemy is secondary brain injury. Score consciousness with the Glasgow Coma Scale; a GCS ≤ 8 generally means secure the airway.

Prevent hypoxia and hypotension (each independently worsens outcome), elevate the head ~30° and keep it midline, maintain normocapnia (avoid routine hyperventilation), and watch for Cushing’s triad (hypertension with widened pulse pressure, bradycardia, irregular respirations) signaling herniation.^[9]

For stroke, establish the last-known-well time and transport to a thrombectomy-capable center — time is brain. Treat status epilepticus (a seizure ≥5 minutes) with a benzodiazepine first.

Trauma & the Lethal Triad

The central trauma concept is the lethal triad — hypothermia, acidosis, and coagulopathy — which, with hypocalcemia, becomes the trauma diamond. Break it with damage-control resuscitation: permissive hypotension, warmed balanced blood products, aggressive warming, calcium replacement, and early tranexamic acid. Control hemorrhage first (tourniquets, pelvic binder, hemostatic dressings) and recognize the chest emergencies that altitude worsens — a tension pneumothorax expands on ascent (Boyle’s law), so decompress then place a chest tube, ideally before flight.^[5]

Burns & Fluid Resuscitation

In burns, the airway is the first threat — singed nasal hairs, soot, stridor, or facial burns mean intubate early before edema closes the airway, and suspect carbon-monoxide and cyanide toxicity in enclosed-space fires. Estimate burn size with the rule of nines and calculate fluids with the Parkland formula — titrated to urine output, keeping the patient warm. Remove constricting rings and jewelry before edema makes them tourniquets, and anticipate escharotomy (along the mid-axial lines) for circumferential burns and abdominal compartment syndrome from over-resuscitation (“fluid creep”).^[8]

Maternal/Fetal, Neonatal & Pediatric

This module groups Maternal Fetal and Neonatal (8 items, 7%) and Pediatric (9 items, 8%).^[1] These special populations each carry trauma, medical, pharmacologic, and transport considerations unique to the group — and weight-/length-based dosing that the FP-C drills hard.

Obstetric & Fetal Emergencies

Maternal physiology can mask hemorrhage: the increased blood volume of pregnancy lets a patient lose roughly 30–35% before showing hypotension, so the fetus may be in distress while maternal vitals still look normal. After ~20 weeks, place the patient in left lateral tilt (or manually displace the uterus) to relieve aortocaval compression.

The best fetal treatment is aggressive maternal resuscitation — treat the mother first.^[5] Recognize preeclampsia/eclampsia (treat seizures with magnesium), placental abruption, cord prolapse, and PROM, and be ready to manage an emergency delivery in flight.

Neonatal Resuscitation & APGAR

In the newborn, ventilation is the priority (unlike adults, neonates arrest from respiratory failure). Follow the NRP flow; the APGAR score describes condition but does not direct resuscitation. Begin positive-pressure ventilation if the newborn is apneic or the heart rate is below 100, add compressions at a 3:1 ratio only if the heart rate stays below 60 despite effective ventilation, and give epinephrine (preferably by umbilical venous catheter) if it remains below 60.^[6]

Pediatric Transport

Use weight-based dosing and length-based tools (a Broselow tape, measured crown-to-heel) and remember that children compensate well then crash suddenly — hypotension is a late, ominous sign. Distinguish croup (barking cough, gradual onset; nebulized racemic epinephrine) from epiglottitis (abrupt fever, drooling, tripod posture; keep the child calm, do not instrument the airway). Calculate maintenance fluids with the 4-2-1 rule and use 2 J/kg for the first pediatric defibrillation.^[8]

Professional Considerations

Professional Considerations is 7 items (6%) — smaller, but reliably tested.^[1] It covers accreditation standards, research and evidence-based medicine, privacy, a Just Culture, ethics and end-of-life care, GAMUT quality metrics, and caregiver wellness.

Legal, Ethical & End-of-Life

Know the intentional torts and duties tested here: assault (creating reasonable apprehension of imminent harmful contact) versus battery (actual unconsented contact); abandonment (unilaterally ending care without transfer to an equal-or-higher level); and negligence. A valid DNR limits resuscitation if arrest occurs but does not bar comfort care, and it does not become void during transport.

Respect for patient autonomy obligates the crew to honor a competent patient’s informed refusal. When a patient lacks capacity and has no advance directive, follow the statutory surrogate hierarchy. A provider must decline an out-of-scope order, and healthcare providers are typically mandatory reporters of suspected abuse.^[8]

Accreditation, Research & GAMUT Metrics

Understand common accreditation standards (such as CAMTS) and the role of evidence-based medicine and basic research terminology in transport practice. The GAMUT (Ground and Air Medical qUality in Transport) metrics benchmark performance across programs, and a Just Culture separates honest error and at-risk behavior (coached) from reckless behavior (disciplined) so crews report near-misses and the system learns. The blueprint also addresses caregiver PTSD and suicide risk — crew wellness is a professional responsibility.^[2]

How to Use This Study Guide

Work through the guide one module at a time. After each module, check it off in the contents to raise your exam-readiness score, then drill the same content in our free practice questions and flashcards — active recall and timed practice are what move knowledge into transport-day performance.

• Weight your time by the blueprint. Airway (15%), Cardiac and Medical Emergencies (13% each), and Trauma/Burn (12%) are the bulk of the exam — build a deep base there first.
• Own the flight physiology. The gas laws, the four hypoxia types, and aircraft safety are easy, high-yield points that make the FP-C different from a ground paramedic exam.
• Master the dose math. Recompute the Parkland formula, the rule of nines, the 4-2-1 rule, pediatric defibrillation (2 J/kg), and drip rates until they are automatic.
• Add the transport twist to every scenario. Ask what altitude, cold, noise, vibration, and being the most experienced clinician on board change about the answer.
• Practice clinical judgment. Recognize the cue, prioritize, take the safe action within scope and protocol, and reassess.

Common clinical questions FP-C candidates search and get asked — each answered briefly and backed by an official source (IBSC, FAA, NIH, AHA, ACS, AAP, or CDC). Tap any card to test yourself.

FP-C Glossary

Key FP-C terms in one place. Hover any dotted term throughout the guide for its definition; the full list is below.

FP-C

Certified Flight Paramedic — the International Board of Specialty Certification (IBSC) credential for experienced paramedics who provide advanced critical care during air medical (flight) and other high-acuity transport.

IBSC

International Board of Specialty Certification — the certifying body (formerly the BCCTPC) that owns and administers the FP-C, CCP-C, CFRN, TP-C, and related transport-certification exams.

Boyle's law

At a constant temperature, the pressure and volume of a gas are inversely proportional ($P_1 V_1 = P_2 V_2$); as the aircraft climbs and pressure falls, trapped gas expands — the basis of barometric (dysbarism) injuries.

Dalton's law

The total pressure of a gas mixture equals the sum of the partial pressures of its gases; at altitude total pressure falls, so the partial pressure of oxygen falls and the patient becomes hypoxic at the same FiO₂.

Henry's law

The amount of gas dissolved in a liquid is proportional to its partial pressure; as pressure falls, dissolved gas comes out of solution — the basis of decompression sickness.

Graham's law

A gas diffuses across a membrane at a rate inversely proportional to the square root of its molecular weight; it governs alveolar gas exchange.

dysbarism

Injury caused by changes in ambient pressure, such as barotrauma to the ears, sinuses, GI tract, and lungs, and decompression sickness; trapped-gas effects follow Boyle's law.

hypemic hypoxia

Hypoxia from reduced oxygen-carrying capacity of the blood (anemia, hemorrhage, carbon-monoxide poisoning) despite adequate oxygen delivery to the lungs; CO poisoning gives a falsely high SpO₂.

histotoxic hypoxia

Hypoxia in which the cells cannot use the oxygen delivered to them, classically from cyanide or hydrogen-sulfide poisoning.

time of useful consciousness

The interval from a sudden loss of cabin oxygen (or rapid decompression) until a person can no longer take corrective action; it shortens sharply with altitude.

CRM

Crew resource management — the coordinated use of all available people, information, and equipment to make safe decisions and manage workload, flattening the authority gradient so any crew member can voice a concern.

IMSAFE

A personal-readiness checklist — Illness, Medication, Stress, Alcohol, Fatigue, Emotion — used before a shift to assess fitness for duty.

CAMTS

The Commission on Accreditation of Medical Transport Systems — a voluntary accreditation body whose standards address transport safety, staffing, and quality.

RSI

Rapid sequence intubation — near-simultaneous administration of an induction agent and a paralytic to rapidly secure the airway, following the 7 P's.

7 P's

The sequential steps of RSI: Preparation, Preoxygenation, Pretreatment, Paralysis with induction, Positioning, Placement with proof, and Post-intubation management.

apneic oxygenation

Delivering supplemental oxygen (e.g., nasal cannula) during the apneic period of intubation to extend the time before desaturation.

capnography

Continuous end-tidal CO₂ waveform monitoring — the gold standard for confirming and continuously verifying endotracheal tube placement, essential in the noisy, moving transport setting.

succinylcholine

A depolarizing paralytic with rapid onset and short duration; avoided in major burns/crush injury >24–72 h old, denervation, prolonged immobility, and hyperkalemia because it causes potassium efflux.

rocuronium

A nondepolarizing paralytic used for RSI when succinylcholine is contraindicated; longer duration without a potassium shift, rapidly reversible with sugammadex.

sugammadex

An agent that encapsulates and rapidly reverses aminosteroid nondepolarizing paralytics such as rocuronium and vecuronium.

ketamine

A dissociative induction agent that preserves airway reflexes and supports blood pressure, useful in shock and bronchospasm; a common RSI induction agent in trauma.

etomidate

A short-acting, hemodynamically stable induction agent; a single dose can transiently suppress adrenal cortisol synthesis, debated in sepsis.

PEEP

Positive end-expiratory pressure — pressure kept in the lungs at end-expiration to keep alveoli open and improve oxygenation in mechanical ventilation.

P/F ratio

The arterial oxygen tension (PaO₂) divided by the fraction of inspired oxygen (FiO₂); grades oxygenation impairment — ≤100 is severe ARDS by the Berlin definition.

ARDS

Acute respiratory distress syndrome — diffuse inflammatory lung injury causing refractory hypoxemia; managed with lung-protective, low-tidal-volume ventilation.

permissive hypotension

Deliberately keeping blood pressure lower than normal in uncontrolled hemorrhage until bleeding is surgically controlled, to avoid 'popping the clot.'

lethal triad

The mutually reinforcing combination of hypothermia, acidosis, and coagulopathy in severe trauma; with hypocalcemia it is the 'trauma diamond.'

TXA

Tranexamic acid — an antifibrinolytic given early in major hemorrhage to reduce clot breakdown and mortality.

tension pneumothorax

Air trapped under pressure in the pleural space causing hypotension, distended neck veins, absent breath sounds, and (late) tracheal deviation; treated with needle decompression then a chest tube; expands at altitude (Boyle's law).

STEMI

ST-elevation myocardial infarction — a fully occluded coronary artery (≥1 mm ST elevation in ≥2 contiguous leads, or new LBBB) needing emergency reperfusion (PCI ≤90 min).

right-sided ECG

A V4R lead obtained in inferior MI to detect right-ventricular involvement; RV infarct makes the patient preload-dependent, so avoid nitroglycerin.

mechanical circulatory support

Devices the transport crew may manage — intra-aortic balloon pump (IABP), Impella, LVAD, or ECMO — that augment or replace cardiac output.

GCS

The Glasgow Coma Scale — a 3-to-15 score of consciousness (eye, verbal, motor); a GCS ≤8 generally indicates the need to secure the airway.

TBI

Traumatic brain injury; transport care focuses on preventing secondary injury — avoid hypoxia and hypotension, elevate the head ~30°, and maintain normocapnia.

Cushing's triad

A late sign of raised intracranial pressure — hypertension with a widened pulse pressure, bradycardia, and irregular respirations — indicating impending herniation.

Parkland formula

A burn fluid estimate: 4 mL × weight (kg) × %TBSA of Lactated Ringer's over 24 h, half in the first 8 h from the time of the burn, titrated to urine output (~0.5 mL/kg/hr in adults).

rule of nines

A rapid method to estimate the percentage of total body surface area burned in adults — head/neck 9%, each arm 9%, each leg 18%, anterior trunk 18%, posterior trunk 18%, perineum 1%.

APGAR

A 0-to-10 newborn score at 1 and 5 minutes across Appearance, Pulse, Grimace, Activity, and Respiration; it describes condition but does not direct resuscitation.

left lateral tilt

Positioning a pregnant patient (after ~20 weeks) tilted to the left to relieve aortocaval compression by the gravid uterus and restore venous return.

4-2-1 rule

A pediatric hourly maintenance-fluid estimate: 4 mL/kg/hr for the first 10 kg + 2 mL/kg/hr for the next 10 kg + 1 mL/kg/hr for each kg beyond 20.

Broselow tape

A length-based (head-to-heel) tape that estimates a child's weight and gives weight-based drug doses and equipment sizes when the weight is unknown.

croup

Viral laryngotracheobronchitis — a barking cough and inspiratory stridor in a toddler, treated with nebulized racemic epinephrine and dexamethasone.

epiglottitis

A rapidly progressive bacterial infection of the epiglottis — high fever, drooling, muffled voice, tripod posture; keep the child calm and avoid instrumenting the airway.

GAMUT metrics

The Ground and Air Medical qUality in Transport quality-improvement metrics used to benchmark transport performance.

Just Culture

A safety framework that balances accountability with learning by distinguishing human error and at-risk behavior (coach/console) from reckless behavior (discipline), encouraging non-punitive reporting.

FP-C Study Guide FAQ

References

1. 1.International Board of Specialty Certification (IBSC). “FP-C Detailed Content Outline (Blueprint) — Certified Flight Paramedic.” IBSC. ↑
2. 2.International Board of Specialty Certification (IBSC). “Certified Flight Paramedic (FP-C) — Role & Exam Requirements.” IBSC. ↑
3. 3.Federal Aviation Administration (FAA). “Aeromedical Education — Altitude Physiology & Hypoxia.” FAA. ↑
4. 4.American Heart Association. “ACLS Guidelines — Acute Coronary Syndromes & Cardiac Arrest.” AHA. ↑
5. 5.American College of Surgeons — Committee on Trauma. “Trauma Quality Programs & Damage-Control Resuscitation.” ACS. ↑
6. 6.American Academy of Pediatrics. “Neonatal Resuscitation Program (NRP).” AAP. ↑
7. 7.Centers for Disease Control and Prevention (CDC). “Carbon Monoxide Poisoning — Clinical Guidance.” CDC. ↑
8. 8.National Institutes of Health / National Library of Medicine. “StatPearls & MedlinePlus Clinical Reference (RSI, ARDS, sepsis, DKA, burns, pediatrics).” NIH/NLM. ↑
9. 9.National Institutes of Health / NINDS. “Traumatic Brain Injury, Increased ICP & Stroke.” NIH/NINDS. ↑
10. 10.National Institutes of Health / NHLBI. “Heart, Lung & Blood Health Topics (ACS, ARDS, shock).” NIH/NHLBI. ↑

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