Nursing · Independent exam preparation
Neonatal Resuscitation Program® (NRP®) Provider Course Study Guide
Practise newborn assessment, effective ventilation, escalation and stabilization with 60 focused concepts, 20 questions and 20 flashcards for NRP Advanced, 9th edition.
By CertMedbry · Updated 28 October 2026
Practise deciding when a newborn needs ventilation, whether breaths are effective, and when to escalate to an advanced airway, compressions or medication. This selective 60-concept guide follows NRP Advanced lessons 1–11, including Essentials lessons 1–4. The official AAP lesson outline and 9th-edition textbook define the full scope. Coverage emphasizes ventilation and initial care; AAP does not publish domain percentage weights in the supplied outline.
Try 20 free practice questionsWhat is the exam format?
Check the question types, timing and outline before planning your revision.
What official course and provider level does this guide cover?
This guide selects the instructor-led NRP Advanced Provider pathway, covering lessons 1–11. The workbook phrase “Neonatal Resuscitation Program Certification” is a generic preparation label; AAP identifies the NRP Provider Course, its online learning assessments and provider course-completion eCard.
How do Essentials and Advanced differ?
Essentials covers lessons 1–4. Advanced covers lessons 1–11 and is appropriate for clinicians responsible for anticipated high-risk newborn resuscitation or interventions beyond ventilation. Employers determine which provider category their staff need. Lessons 5–11 in this guide belong to Advanced coverage.
Which edition and effective dates apply?
NRP 9th edition launched in October 2025 alongside the 2025 AHA/AAP neonatal resuscitation guidelines. Instructors were required to incorporate 9th-edition content by June 1, 2026. The AAP pages supplied for this guide were verified on October 28, 2026.
What are the question count, scored/pretest split and assessment duration?
The supplied AAP provider information does not establish a fixed question count, scored/pretest split or fixed assessment time limit. Those numerical details remain unverified here. The verified 90-day interval concerns completing the instructor-led event after Part 1; it is not an examination duration.
How are the online assessments delivered, and what item styles are verified?
Part 1 includes the Essentials Online Learning Assessment and, for Advanced learners, the Advanced Online Learning Assessment. AAP states that both use True Adaptive learning, adjusting to knowledge, confidence and performance. The supplied information does not establish an exhaustive item-style inventory. This guide's four-option questions are independent learning drills and do not reproduce the adaptive assessment.
What must follow the online learning?
For the selected instructor-led pathway, Part 2 must occur within 90 days after Part 1. It includes an evaluative scenario and simulation/debriefing. Learners must register for the appropriate event. After all requirements and instructor skills approval are complete, the provider eCard is generated.
Does the official outline publish domain weights or test supplemental lessons?
The supplied AAP outline lists lessons without percentage weights. This guide's distribution is editorial, emphasizing ventilation and initial care while covering every Advanced lesson. Lessons 12–16 are supplemental and have no examination questions. The official outline and textbook remain the full scope beyond these 60 selected concepts.
How does RQI for NRP relate to this pathway?
RQI for NRP is an institutional quality improvement option using self-directed Essentials learning and quarterly activities at a simulation station. It is not required for the traditional instructor-led course. AAP states that Advanced providers using this approach still attend an instructor-led event every two years to demonstrate advanced skills.
Are cardiac, NICU and prehospital courses included here?
AAP describes separate cardiac, NICU and prehospital education offerings. They are not substituted for the selected Advanced Provider curriculum. Supplemental textbook lessons on these settings do not expand the tested lessons 1–11. This guide uses the AAP/AHA curriculum; supplementary Australian/New Zealand guidance does not establish a separate NRP examination or jurisdictional credential.
AAP — NRP New Initiatives & 9th Edition · AAP — NRP 9th Edition Materials
This independent educational guide addresses the AAP/AHA NRP Advanced Provider Course and immediate newborn care at birth. Course completion establishes NRP provider status; it is not a separate RN or nurse practitioner licensure examination. Clinical recommendations follow NRP 9th edition and the 2025 AHA/AAP neonatal guidelines. ANZCOR references provide supplementary clinical support, rather than defining the AAP curriculum.
Outline used: NRP 9th edition: launched October 2025; instructor courses required to incorporate this edition by June 1, 2026. Verified against current AAP provider requirements and published lesson scope as of October 11, 2026. The workbook label 'Neonatal Resuscitation Program Certification' maps to the NRP Provider Course, its Essentials and Advanced Online Learning Assessments, and provider course-completion eCard; it is not the official name of a separate certification examination. This preview covers the Advanced curriculum, lessons 1–11, including the Essentials curriculum, lessons 1–4.
60 key concepts: understand, apply and avoid the traps
Work through the questions by exam domain. Explain the answer in your own words, try the example, then check the common pitfall.
Foundations of Neonatal Resuscitationnot stated
1.How does lung aeration change newborn circulation?
Before birth, the placenta provides gas exchange while pulmonary blood flow is relatively limited. Aerating the lungs establishes pulmonary gas exchange and supports the circulatory transition toward greater pulmonary blood flow. A newborn who fails to breathe therefore needs help inflating the lungs promptly. The practical clue is that successful respiratory support usually produces a rising heart rate, linking lung inflation directly to cardiovascular recovery.
Apply it
A newborn is apneic after initial warming and stimulation. The heart rate is 80/min. Explain to the team why establishing lung inflation takes priority over treating the low heart rate with medication.
Common pitfall: Treating the delivery-room problem as a primary cardiac arrest can divert attention from the respiratory failure that commonly drives the newborn's cardiovascular deterioration.
2.Why does neonatal bradycardia usually call for ventilation first?
A low heart rate at birth commonly reflects inadequate lung inflation and impaired gas exchange. Ventilation addresses this upstream problem by moving gas into the lungs. Oxygen concentration alone cannot correct absent air movement. Distinguish bradycardia before effective ventilation from severe bradycardia that persists after effective ventilation: the first demands respiratory correction, while the second may require compressions and subsequently epinephrine according to the escalation sequence.
Apply it
A newborn has a heart rate of 50/min while mask breaths produce no visible chest movement. Identify the missing prerequisite for interpreting this as persistent bradycardia requiring compressions, and select the immediate treatment focus.
Common pitfall: A very low numerical heart rate does not prove ventilation has failed physiologically when the attempted breaths have never actually inflated the lungs.
3.How should reassessment direct the resuscitation sequence?
Resuscitation is a sequence of interventions followed by assessment of their effect. Breathing and heart rate guide the need for support, while heart-rate improvement is the principal sign that ventilation is working. Chest movement helps determine whether gas is entering the lungs. Oxygen saturation guides oxygen adjustment. These observations answer different questions, so an unchanged saturation reading should not erase clear evidence of cardiovascular improvement.
Apply it
During assisted ventilation, heart rate increases from 70 to 120/min while the oximeter is still acquiring a signal. State which response demonstrates effective ventilation and which measurement remains necessary to guide oxygen administration.
Common pitfall: Waiting for every monitor to display a reassuring value can delay decisions already supported by breathing, chest movement and a clearly rising heart rate.
4.What role does the Apgar score have during resuscitation?
The Apgar score summarizes the newborn's condition and response over time; it does not determine when to begin lifesaving intervention. Respiratory effort and heart rate must be assessed immediately, and indicated treatment begins before a scheduled score is completed. Recording the score alongside interventions gives useful context because an infant receiving support may have a different clinical trajectory from an unsupported infant with the same numerical score.
Apply it
At 35 seconds after birth, a newborn remains apneic despite initial steps. A colleague proposes waiting for the one-minute Apgar score. Explain the decision that must occur now and how scoring fits around treatment.
Common pitfall: Using the Apgar score as a treatment trigger confuses documentation with real-time assessment and can postpone ventilation in an infant who already needs support.
ANZCOR Guideline 13.9 — After the Resuscitation of a Newborn
Anticipating and Preparing for Resuscitationnot stated
5.Which perinatal findings should change resuscitation preparation?
Review antenatal and intrapartum information before every birth to estimate the likelihood and complexity of support. Prematurity, fetal compromise and known anomalies can change the personnel, equipment and thermal measures needed. Risk assessment guides preparation rather than guaranteeing the infant's response. Because unexpected depression also occurs after apparently uncomplicated pregnancies, basic readiness and an immediately available clinician capable of ventilation remain necessary at every birth.
Apply it
An urgent delivery is planned for fetal compromise at 29 weeks. Decide which preparation should occur before delivery rather than after the infant appears, considering respiratory expertise, thermal protection and access to advanced resuscitation equipment.
Common pitfall: A reassuring prenatal history lowers anticipated risk but does not justify removing ventilation equipment or assigning newborn care only after an infant becomes visibly depressed.
6.Who must be ready to care for the newborn at every birth?
Every birth should have at least one person whose sole responsibility is the newborn and who can perform initial care and provide ventilation. Anticipated higher risk requires additional personnel with appropriate advanced skills. The key distinction is between being physically present and being immediately available for newborn care. Someone simultaneously responsible for maternal emergencies may be unable to provide the uninterrupted response an apneic newborn requires.
Apply it
A delivery team includes an obstetric clinician managing maternal bleeding and a nurse assigned exclusively to the newborn. Determine whether the newborn role includes the ability to start ventilation immediately, and when additional neonatal personnel are needed.
Common pitfall: Counting all clinicians in the room overestimates neonatal readiness if none can leave maternal responsibilities promptly or if the designated newborn clinician cannot provide ventilation.
7.How does a prebirth briefing prevent treatment delays?
A focused briefing converts risk information into an operational plan. Identify the leader, airway clinician, monitoring responsibilities and likely escalation needs; coordinate the cord management plan with the obstetric team. Team members should know how to request additional help and report responses clearly. Assignments matter because simultaneous tasks compete for attention, and an unassigned task such as heart-rate reporting may otherwise disappear during a difficult ventilation attempt.
Apply it
Before a high-risk birth, three clinicians arrive but no roles are assigned. Create a brief plan specifying who ventilates, who reports heart rate and who coordinates escalation while preserving a shared cord management plan.
Common pitfall: A long discussion of risks without explicit responsibilities can leave the team informed but operationally unprepared when several time-critical tasks must occur together.
8.What makes a ventilation equipment check meaningful?
A useful equipment check verifies function, rather than merely confirming that a bag or circuit is present. Confirm the ventilation device, connections, gas supply when required, pressure delivery and appropriately sized interfaces before birth. Check that backup equipment can be reached promptly. The discriminating question is whether the assembled system can deliver breaths now; unopened supplies or a disconnected gas source do not provide immediate respiratory capability.
Apply it
A T-piece device is on the warmer, but its gas tubing is disconnected. During the prebirth check, identify why its presence is insufficient and demonstrate how the team will establish a functioning ventilation setup.
Common pitfall: Discovering a circuit problem only after unsuccessful breaths can make equipment failure resemble poor lung compliance and encourage unnecessary increases in inflation pressure.
9.How should anticipated advanced resuscitation change equipment readiness?
When advanced support is foreseeable, prepare airway equipment, heart-rate and oxygen monitoring, vascular access supplies and medications before delivery. Match airway sizes to the anticipated infant and verify the laryngoscope and carbon dioxide detector are available. Preparation should permit escalation while another clinician continues ventilation. Advanced equipment supplements a functioning initial ventilation system; it does not remove the need to begin effective respiratory support without delay.
Apply it
A severely compromised fetus is about to be delivered. The team has a working mask ventilation system. Identify additional equipment to prepare so that intubation, monitoring and emergency vascular access can proceed without interrupting respiratory support.
Common pitfall: Concentrating exclusively on an intubation tray can leave the team without a working initial ventilation device while advanced airway placement is being organized.
AHA/AAP — Part 5: Neonatal Resuscitation, 2025 Guidelines · ANZCOR Guideline 13.5 — Tracheal Intubation and Ventilation of the Newborn
Initial Steps of Newborn Carenot stated
10.Which initial findings distinguish routine transition from needed support?
Initial assessment considers gestational maturity, muscle tone and whether the infant is breathing or crying effectively. A well term infant with good tone and effective breathing can usually remain with the parent for routine care and observation. Poor tone or ineffective breathing calls for further assessment and initial stabilization. Gasping is ineffective respiration, so occasional gasps should not be mistaken for successful transition or used to postpone ventilation.
Apply it
Two term newborns are delivered: one cries with flexed limbs, while the other is limp and gasps intermittently. Assign each to the appropriate initial care pathway and explain the respiratory cue driving the difference.
Common pitfall: The presence of any respiratory movement is an inadequate reassurance; gasping does not establish effective breathing and requires prompt recognition during initial assessment.
11.How should a well term newborn be kept warm?
Prompt drying, removal of wet materials, skin-to-skin contact and warm coverings help limit evaporative and environmental heat loss. Keep the face visible and continue observing breathing while supporting parent–infant contact. Temperature should be maintained between 36.5°C and 37.5°C. A newborn needing resuscitation may require a radiant warmer and additional measures, so the warming approach should fit both the infant's clinical condition and access needed for treatment.
Apply it
A vigorous term infant is placed skin-to-skin beneath a wet towel. Choose the immediate thermal correction while preserving contact with the parent, keeping the airway visible and continuing observation of respiratory transition.
Common pitfall: Skin-to-skin positioning does not compensate for leaving wet coverings in place, and visual warmth alone cannot establish that the newborn's temperature is normal.
12.When should stimulation give way to assisted ventilation?
Drying and gentle rubbing of the back or soles can encourage respiratory effort. These measures should be brief and should not delay ventilation when apnea, gasping or persistent heart rate below 100/min remains after initial steps. Aim to provide indicated ventilation within the first 60 seconds after birth. Repeated stimulation becomes a poor choice when it substitutes for the lung inflation the infant has not established.
Apply it
After warming, positioning and brief stimulation, a newborn remains apneic at 45 seconds with a heart rate of 90/min. Decide whether to repeat stimulation or start ventilation, and identify the findings supporting your choice.
Common pitfall: Repeated rubbing may feel like active treatment, but it cannot replace assisted breaths when the infant remains apneic and the heart rate is low.
13.When is suctioning justified after birth?
Suctioning is selective treatment for suspected airway obstruction, rather than a routine step for every newborn. Clear or meconium-stained fluid alone does not establish obstruction. Consider suction when visible material blocks breathing or when ineffective ventilation suggests an obstructed airway. Tracheal suction may help when tracheal obstruction prevents effective ventilation. Unnecessary suction can cause bradycardia, apnea, desaturation and trauma while delaying the breaths that restore gas exchange.
Apply it
A newborn delivered through meconium-stained fluid is apneic. No obstructing material is visible. Explain why ventilation should begin promptly and what subsequent finding could justify suction as a targeted corrective intervention.
Common pitfall: Meconium exposure is a risk clue, not an automatic indication for tracheal suction before ventilation in either a vigorous or nonvigorous newborn.
14.How should heart rate be measured during initial stabilization?
Auscultation provides the initial physical assessment of heart rate. ECG offers rapid, accurate ongoing measurement and becomes especially important during advanced resuscitation. Pulse oximetry also displays heart rate, but signal acquisition can be slow and early readings may be inaccurate. Use the best available reliable assessment without postponing indicated ventilation. Remember that ECG measures electrical activity and does not provide the oxygen saturation needed to guide oxygen therapy.
Apply it
An apneic infant has no oximeter signal, but auscultation reveals a heart rate of 80/min. State the immediate intervention and arrange ECG monitoring without making acquisition of either monitor a prerequisite for starting respiratory support.
Common pitfall: An absent oximeter pulse display does not establish absent cardiac activity; waiting for its signal can delay ventilation despite a usable auscultated heart rate.
15.Why is the right hand used for resuscitation pulse oximetry?
Place the pulse oximeter sensor on the right hand or wrist to obtain a preductal measurement. This reflects oxygenation before blood passes the ductal connection into the descending aorta and matches the reference used for delivery-room saturation targets. Apply monitoring when respiratory support or supplemental oxygen is required. Interpret the saturation only when the signal is credible, and continue clinical and heart-rate assessment while the device acquires its reading.
Apply it
A newborn receiving ventilation has an oximeter sensor on the left foot. Move it to the site used for preductal targets and explain why the measurement location matters when interpreting early transitional oxygen saturation.
Common pitfall: A technically clear foot reading is postductal and should not be treated as interchangeable with the preductal measurement used to guide delivery-room oxygen targets.
16.When should cord clamping be deferred in a term newborn?
For most term newborns who do not require immediate resuscitation, defer cord clamping for at least 60 seconds. Initial observation, drying and appropriate stimulation can occur while the cord remains intact. Coordinate the plan before birth so that assessment and thermal care continue during this interval. The key boundary is the infant's need for immediate support; a planned delay should not become a reason to withhold necessary ventilation.
Apply it
A term infant is crying with good tone while the cord remains intact. Plan assessment and warmth during at least 60 seconds of deferred clamping, and identify the clinical change that would require reassessing that plan.
Common pitfall: Applying a cord timing target without monitoring breathing can turn a beneficial transition strategy into a delay in recognizing an infant who needs resuscitation.
AAP — NRP 9th Edition Science Changes Table · AHA/AAP — Part 5: Neonatal Resuscitation, 2025 Guidelines
17.What ongoing assessment is needed during routine skin-to-skin care?
Routine care includes continued observation of breathing, tone, temperature and overall transition while the infant remains with the parent. Position the infant so the mouth and nose stay visible and breathing can be assessed. An initially vigorous cry does not guarantee that respiratory function will remain adequate. New respiratory distress, poor tone or apnea requires prompt reassessment and movement to the support pathway appropriate to the infant's current condition.
Apply it
A term newborn initially cries vigorously but becomes poorly responsive and stops breathing during skin-to-skin care. Recognize that the earlier normal assessment no longer determines care and initiate immediate reassessment and respiratory support as indicated.
Common pitfall: Labeling an infant “routine care” is not a permanent disposition; ongoing observation is needed because the newborn's condition can change after an initially reassuring transition.
Ventilationnot stated
18.Which findings indicate assisted ventilation?
Provide assisted ventilation for apnea, gasping or persistent heart rate below 100/min after appropriate initial steps. Begin within the first 60 seconds after birth when indicated. An infant may need ventilation even if some respiratory effort is present, because that effort may not produce adequate gas exchange. Conversely, supplemental oxygen alone addresses oxygen concentration and cannot substitute for breaths in an infant who is not ventilating effectively.
Apply it
A newborn breathes weakly after initial steps but has a sustained heart rate of 85/min. Decide whether visible effort is sufficient reassurance or whether assisted ventilation is indicated, using heart rate and respiratory effectiveness together.
Common pitfall: Waiting for complete apnea overlooks infants whose weak breathing is inadequate; a persistently low heart rate after initial steps is itself an indication for assisted ventilation.
19.What best demonstrates effective assisted ventilation?
An increasing heart rate is the principal indicator that assisted ventilation is effective. Chest movement helps establish that breaths inflate the lungs, while improving oxygen saturation provides additional information as monitoring becomes available. If heart rate does not increase and the chest does not move within 15–30 seconds of starting ventilation, begin corrective measures. Time spent squeezing a bag without lung inflation does not establish an adequate ventilation trial.
Apply it
After 20 seconds of mask ventilation, a newborn's heart rate remains 70/min and no chest movement is seen. Interpret the response and choose ventilation correction instead of simply allowing another unchanged interval of ineffective breaths.
Common pitfall: Counting delivered breaths or elapsed time without assessing the infant can falsely suggest an adequate treatment trial even when little gas enters the lungs.
AAP — NRP 9th Edition Science Changes Table · AHA/AAP — Part 5: Neonatal Resuscitation, 2025 Guidelines
20.How fast should assisted breaths be delivered?
NRP 9th edition uses a ventilation rate of 30–60 breaths/min before coordinated chest compressions are needed. Deliver controlled inflations with time for exhalation, and assess heart-rate response rather than pursuing speed alone. The 2025 guideline considers an initial inflation time of 0.5–1 second reasonable. Once compressions begin, ventilation becomes synchronized with the 3:1 sequence, so the standalone ventilation rate should not be carried into that coordinated phase.
Apply it
A clinician gives 12 assisted breaths over 20 seconds while another monitors the heart rate. Calculate the rate as 36 breaths/min and decide whether it falls within the current standalone ventilation range before compressions.
Common pitfall: Using an older rate range as the only acceptable answer misses the expanded 9th-edition range; rate alone also cannot establish that breaths are effective.
AAP — NRP 9th Edition Science Changes Table · AHA/AAP — Part 5: Neonatal Resuscitation, 2025 Guidelines
21.Which initial oxygen concentration fits the infant's gestation?
For initial respiratory support, NRP 9th edition specifies 21% oxygen at 35 weeks or more, 21%–30% at 32–34 weeks, and at least 30% below 32 weeks. These are starting settings, followed by titration using preductal saturation and clinical response. They do not define a permanent oxygen requirement. Separate the initial ventilation phase from chest compressions, during which oxygen is increased according to the advanced resuscitation sequence.
Apply it
Prepare respiratory support for infants at 38, 33 and 29 weeks. Assign the corresponding starting oxygen category to each, then explain why pulse oximetry remains necessary even when the initial blender setting is correct.
Common pitfall: Applying the older single “below 35 weeks” oxygen category misses the current distinction at 32 weeks and can produce an inappropriate starting setting.
22.How should transitional oxygen saturation targets guide titration?
The 9th-edition preductal saturation table begins at two minutes: 65%–70% at two, 70%–75% at three, 75%–80% at four, 80%–85% at five and 85%–95% at ten minutes. Saturation normally increases during transition, so an immediate adult-like target is inappropriate. Adjust oxygen against the age-specific range using a reliable signal, while separately confirming effective ventilation and an appropriate heart-rate response.
Apply it
At five minutes, a ventilated newborn has a reliable right-hand saturation of 82% and a heart rate of 140/min. Interpret that value against the correct time-specific range rather than increasing oxygen solely to exceed 95%.
Common pitfall: Treating every saturation below 95% as abnormal during early transition encourages unnecessary oxygen exposure and ignores the age-specific ranges used in newborn resuscitation.
23.How can mask leak be distinguished and corrected?
Mask leak can prevent adequate pressure and gas delivery despite a functioning device. Reassess mask size, position and seal when chest movement and heart-rate response are inadequate. A two-handed mask hold with another clinician operating the device can improve the seal. Judge success by the infant's response after adjustment. Increasing pressure without correcting a substantial leak may accomplish little and can suddenly deliver excessive volume when the seal improves.
Apply it
A term infant has no chest movement during ventilation, and gas escapes around the mask. Ask a second clinician to assist with a two-handed seal and reassess chest movement and heart rate after the change.
Common pitfall: Pressing harder on the face is not a reliable substitute for correct mask fit and airway positioning, and it may worsen obstruction during attempted ventilation.
24.Why can airway repositioning restore ventilation?
Head flexion or excessive extension can obstruct the newborn's upper airway despite an adequate mask seal. Position the infant supine with the head neutral or slightly extended, avoiding both flexion and hyperextension. Supporting the lower jaw forward or gently opening the mouth can improve airway patency. Resume ventilation and reassess chest movement and heart rate; a rising heart rate is the principal sign of effective ventilation. Current NRP guidance allows corrective maneuvers to be prioritized according to the likely cause of ineffective ventilation.
Apply it
During mask ventilation, a newborn's chin is pressed toward the chest, the chest does not move, and heart rate remains low. Bring the head into a neutral or slightly extended position, support the jaw, and maintain the mask seal. If needed, gently open the mouth. Resume breaths and check for chest movement and a heart-rate rise before deciding whether additional corrective measures are necessary.
Common pitfall: Replacing marked flexion with marked hyperextension can leave the airway obstructed. Increasing inflation pressure without correcting an obvious positioning problem may still fail to ventilate the lungs. Reposition deliberately, then reassess the response rather than assuming that moving the head has restored patency.
AAP — NRP 9th Edition Science Changes Table · AHA/AAP — Part 5: Neonatal Resuscitation, 2025 Guidelines · ANZCOR Guideline 13.4 — Airway Management and Mask Ventilation of the Newborn
25.When should obstruction be suspected during ventilation?
Suspect obstruction when breaths remain ineffective despite attention to mask seal and airway position, particularly when blood, mucus or other material is apparent. Targeted suction can clear material that blocks gas movement. Persistent evidence of tracheal obstruction may justify intubation and tracheal suction. The decision depends on impaired air movement, rather than the color of amniotic fluid alone, and must remain focused on rapidly establishing effective lung inflation.
Apply it
A newborn delivered after bleeding has a good mask seal but no chest movement, and blood is visible in the mouth. Select a corrective intervention directed at obstruction and reassess ventilation immediately after clearing the airway.
Common pitfall: Increasing inflation pressure repeatedly against an obstructed airway can postpone definitive correction; obstruction requires assessment and relief rather than an assumption of stiff lungs.
26.How should inflation pressure be selected and adjusted?
NRP 9th edition suggests an initial peak inflation pressure of 25 cm H2O, with acceptable initial ranges of 25–30 at 32 weeks or more and 20–25 below 32 weeks. Adjust pressure to produce effective ventilation while avoiding excessive tidal volume. Assess leak and obstruction when the response is poor. Once aeration improves, the same pressure may deliver more volume, making downward adjustment as important as upward correction.
Apply it
A 30-week infant initially needs pressure adjustment to achieve chest movement. After aeration, chest excursions become excessive at the same setting. Decide how to modify support while continuing to monitor the improving heart rate.
Common pitfall: An initial pressure is a starting point rather than a fixed prescription; maintaining it despite excessive chest movement can expose fragile lungs to unnecessary volume.
AAP — NRP 9th Edition Science Changes Table · AHA/AAP — Part 5: Neonatal Resuscitation, 2025 Guidelines
27.When is a laryngeal mask a useful ventilation interface?
A laryngeal mask can provide ventilation without passage through the vocal cords. For infants at least 34 weeks, the 2025 guideline supports its use when face-mask ventilation is unsuccessful and permits it as a primary interface. It is particularly useful when intubation is unsuccessful or not feasible. Evidence is limited for smaller, less mature infants, so availability of a small device should not be mistaken for established effectiveness across every gestation.
Apply it
A 37-week infant remains poorly ventilated after mask corrective maneuvers, and intubation has been unsuccessful. Select a laryngeal mask as an available route to establish lung inflation and reassess heart rate immediately after placement.
Common pitfall: Restricting the laryngeal mask to a final rescue after every other option misses its current role as a possible primary interface in eligible infants.
AHA/AAP — Part 5: Neonatal Resuscitation, 2025 Guidelines · AAP — NRP 9th Edition Science Changes Table
28.What does positive end-expiratory pressure contribute?
Positive end-expiratory pressure maintains pressure at the end of expiration and may help preserve lung aeration between assisted breaths. This supports functional residual capacity and reduces repeated collapse, particularly in immature lungs. PEEP may be reasonable during newborn ventilation, but it does not create effective inflations when the airway is blocked or the mask leaks substantially. Distinguish maintaining aeration between breaths from generating the breaths needed by an apneic infant.
Apply it
A preterm infant needs assisted breaths and repeatedly loses lung aeration between inflations. Explain the purpose of PEEP while confirming that the device is also delivering effective breaths through a patent airway and adequate interface seal.
Common pitfall: Adding end-expiratory pressure cannot compensate for an absent respiratory rate in an apneic infant; effective assisted inflations remain necessary to establish gas exchange.
29.When can assisted ventilation be reduced or stopped?
Reduce assisted breaths as spontaneous breathing becomes effective and heart rate remains at least 100/min. Continue assessing respiratory effort and oxygenation because cardiovascular recovery may precede sustained independent breathing. An infant who remains apneic still needs ventilation even after heart rate normalizes. A spontaneously breathing infant may instead need oxygen or, particularly when preterm with distress, CPAP. The decision depends on both breathing and circulation, rather than either measurement in isolation.
Apply it
After ventilation, heart rate rises to 135/min but the newborn makes no spontaneous breaths. Decide whether to stop support, and describe the additional respiratory improvement needed before withdrawing assisted inflations while maintaining close monitoring.
Common pitfall: A normal heart rate confirms a favorable response to ventilation but does not prove the infant can sustain gas exchange after assisted breaths are withdrawn.
Endotracheal Intubationnot stated
30.When should endotracheal intubation be considered?
Consider intubation when mask ventilation remains ineffective despite corrective maneuvers, prolonged ventilation is needed or a special condition requires a secured airway. Endotracheal ventilation is recommended during chest compressions. The purpose is reliable gas delivery, so intubation should not become a prolonged interruption of oxygenation. Prematurity alone does not establish that intubation is required when a preterm infant is breathing adequately and can be supported noninvasively.
Apply it
A newborn remains bradycardic after repeated correction of ineffective mask ventilation. Arrange an advanced airway while preserving respiratory support, and explain why the decision is based on ventilation failure rather than simply the infant's birth weight.
Common pitfall: Repeated intubation attempts without effective interim ventilation can worsen hypoxia; successful airway management is judged by restored ventilation rather than completion of a procedure.
AHA/AAP — Part 5: Neonatal Resuscitation, 2025 Guidelines · ANZCOR Guideline 13.5 — Tracheal Intubation and Ventilation of the Newborn
31.How should tracheal tube placement be confirmed?
Use exhaled carbon dioxide detection together with direct observation and clinical response to confirm tracheal placement. Chest movement, bilateral air entry and a rising heart rate support effective ventilation through the tube. No single superficial sign, such as condensation, is sufficient. A carbon dioxide signal establishes gas exchange with perfused lung tissue but does not establish ideal insertion depth, so asymmetric ventilation still requires evaluation even when carbon dioxide is detected.
Apply it
After intubation, the tube mists but heart rate remains low and chest movement is absent. Reassess tube position and ventilation using carbon dioxide detection and clinical findings instead of accepting condensation as adequate confirmation.
Common pitfall: Tube misting can be misleading, while a positive carbon dioxide detector does not exclude a tube advanced too far into one main bronchus.
ANZCOR Guideline 13.5 — Tracheal Intubation and Ventilation of the Newborn
32.Why can an exhaled carbon dioxide detector be falsely negative?
Exhaled carbon dioxide depends on pulmonary blood flow carrying carbon dioxide to ventilated alveoli. During profound circulatory compromise, little carbon dioxide may reach the lungs even with a correctly placed tube. A negative detector therefore requires integrated reassessment rather than automatic extubation. Check visualization, chest movement, air entry and tube position while restoring circulation. Conversely, absent chest movement and absent improvement should increase concern about placement or ineffective ventilation.
Apply it
An infant with profound bradycardia has a tube seen passing through the cords and bilateral chest movement, but no detector color change. Explain the low-flow limitation and reassess the airway without reflexively removing a potentially correct tube.
Common pitfall: Treating a negative detector as absolute proof of esophageal placement ignores the effect of severely reduced pulmonary perfusion and may cause unnecessary airway loss.
ANZCOR Guideline 13.5 — Tracheal Intubation and Ventilation of the Newborn
33.How does the 9th edition define the tube-depth reference point?
NRP 9th edition measures estimated endotracheal insertion depth to the anterior edge of the upper maxillary gum in the midline, rather than to the lip. Use the current depth guidance with its matching reference point, then reassess ventilation and tube position clinically. A numerical depth is an initial estimate. If bilateral air entry is absent or the tube moves during securing, position must be checked again.
Apply it
A clinician uses a 9th-edition insertion-depth estimate but aligns the marking with the lip. Identify the reference-point mismatch, correct the measurement approach and reassess bilateral ventilation before treating the estimate as a confirmed tube position.
Common pitfall: Mixing a current depth estimate with an older lip reference introduces a placement error even when the numerical value has been recalled correctly.
34.Which tube-size changes matter in the 9th edition?
The updated NRP table lists a 2.5-mm internal-diameter tube for 800–1,200 g and a 3.0-mm tube for 1,201–2,200 g. Above 2,200 g, the listed size is 3.5 mm. Below 800 g, 2.5 mm is listed, with 2.0 mm an optional consideration. Prepare suitable alternatives because the table guides initial selection rather than guaranteeing fit. Tube size and insertion depth are separate decisions requiring their own checks.
Apply it
A newborn is expected to weigh 1,100 g at approximately 28 weeks. Select the listed initial internal diameter from the updated table and prepare adjacent equipment sizes while independently planning insertion depth and confirmation.
Common pitfall: Automatically applying the older 1-kg threshold can produce a different tube choice; remembering a tube diameter does not establish the appropriate insertion depth.
Chest Compressionsnot stated
35.When are chest compressions indicated?
Start compressions if heart rate remains below 60/min after at least 30 seconds of ventilation that inflates the lungs, evidenced by chest movement. Optimize ventilation first, preferably using an alternative airway when feasible. This prerequisite distinguishes persistent circulatory failure from untreated respiratory failure. A heart rate between 60 and 99/min generally calls for continued effective ventilation and reassessment, rather than compressions solely because the rate remains below normal.
Apply it
After 30 seconds of endotracheal ventilation with chest movement, heart rate remains 45/min. Select coordinated compressions and ventilation. Contrast this with the same rate after 30 seconds of mask breaths that produced no chest movement.
Common pitfall: Counting ineffective mask breaths toward the required ventilation interval can lead to premature compressions while the primary problem of inadequate lung inflation remains unresolved.
36.How should neonatal chest compressions be performed?
Use the two-thumb encircling-hands technique over the lower third of the sternum, staying above the xiphoid. Compress approximately one third of the chest's anterior–posterior diameter and allow recoil between compressions. Supporting the back and using the thumbs helps generate consistent pressure. The correct depth is proportional to the infant's chest size, so adult centimeter targets should not be transferred to the newborn's much smaller thorax.
Apply it
During a newborn simulation, a learner places thumbs over the xiphoid and compresses very shallowly. Correct the location and proportional depth, then observe whether recoil occurs while the hands continue supporting the infant's chest.
Common pitfall: A rapid compression count does not compensate for poor location, inadequate depth or incomplete recoil; each can reduce effectiveness despite apparently correct timing.
37.How are compressions coordinated with ventilation?
For newborn resuscitation at birth, synchronize three compressions with one ventilation. The coordinated target is 90 compressions and 30 breaths per minute, totaling 120 events. This pattern preserves frequent ventilation because respiratory failure commonly precedes neonatal cardiovascular collapse. The ventilation clinician and compressor must share a rhythm so that a breath can be delivered effectively. The standalone 30–60 breaths/min range applies before this coordinated compression phase.
Apply it
Two clinicians begin compressions for persistent severe bradycardia. Establish a shared 3:1 rhythm and calculate the intended compressions and ventilations over one minute, ensuring the inflation occurs in the planned pause between compression sequences.
Common pitfall: Delivering the standalone ventilation rate on top of the compression sequence disrupts coordination and confuses total events per minute with compressions per minute.
38.How should oxygen change when compressions begin and end?
During newborn chest compressions, increase inspired oxygen to 100% as part of the advanced resuscitation sequence. The 2025 guideline considers this reasonable, while acknowledging limited direct comparative evidence. Once compressions are no longer needed, titrate oxygen to the preductal saturation targets. The oxygen setting for compressions is therefore phase-specific and should not be confused with the lower gestation-based concentration used to initiate respiratory support before compressions.
Apply it
A term infant starts ventilation in room air and later meets compression criteria. Adjust oxygen for the compression phase, then plan a reduction guided by preductal saturation after circulation improves and compressions are discontinued.
Common pitfall: Leaving oxygen at 100% after recovery can create unnecessary exposure; the compression-phase setting does not remain appropriate automatically once circulation has improved.
39.What should the team assess after coordinated compressions?
After 60 seconds of coordinated compressions and adequate ventilation, reassess heart rate. Persistent rate below 60/min indicates epinephrine while effective ventilation and compressions continue. If heart rate reaches at least 60/min, discontinue compressions and continue respiratory support as needed. ECG supports rapid assessment, but confirm a mechanical heartbeat when indicated because compression artifact or electrical activity without effective circulation can mislead interpretation of the monitor.
Apply it
After one minute of coordinated support, ECG shows 80/min and an audible heartbeat confirms circulation, but the infant remains apneic. Stop compressions while continuing ventilation, then reassess respiratory recovery and oxygen requirements closely.
Common pitfall: Stopping all support when compressions are no longer indicated overlooks persistent apnea; conversely, continuing compressions after heart-rate recovery can interfere with needed ventilation.
Medicationsnot stated
40.When does epinephrine become appropriate?
Epinephrine is indicated when heart rate remains below 60/min despite adequate ventilation and 60 seconds of coordinated chest compressions. Its vascular and cardiac effects support coronary perfusion and myocardial activity, but it cannot replace lung inflation. Before escalating, confirm that ventilation and compressions have been effective. Continue both while medication is prepared and delivered, because drug administration is an addition to the ongoing resuscitation rather than a separate pause.
Apply it
An infant remains at 40/min after a minute of correctly coordinated compressions with effective endotracheal ventilation. Identify the next pharmacologic intervention and assign its preparation without interrupting the respiratory and circulatory support already underway.
Common pitfall: Giving epinephrine early for bradycardia caused by ineffective ventilation treats a downstream sign while leaving the principal cause of poor recovery uncorrected.
41.Which vascular route is preferred during delivery-room resuscitation?
The umbilical venous route is preferred for emergency intravascular access in the newborn at birth. It permits reliable delivery of epinephrine and volume when indicated. Intraosseous access may be considered when intravenous access is not feasible or successful, accounting for available equipment and clinician experience. Access preparation should occur alongside uninterrupted ventilation and compressions. A familiar but slow peripheral attempt should not become the only plan during persistent severe bradycardia.
Apply it
A newborn requires epinephrine, and no peripheral intravenous line is present. Prepare emergency umbilical venous access while other team members maintain support, and identify an alternative intravascular approach if umbilical access cannot be established.
Common pitfall: Equating intravascular treatment only with a peripheral cannula may delay medication; the umbilical vein is the preferred emergency route in the delivery-room setting.
42.When can endotracheal epinephrine serve as a bridge, and when should doses be repeated?
Epinephrine is indicated when heart rate remains below 60/min despite effective ventilation and coordinated chest compressions. Intravascular administration is preferred, using 0.01–0.03 mg/kg. While vascular access is being established, endotracheal epinephrine at 0.05–0.1 mg/kg may serve as a bridge, but absorption is less reliable. Additional doses may be administered every 3–5 minutes, preferably intravascularly, while heart rate remains below 60/min despite effective support. The important exception is an inadequate response to endotracheal epinephrine: give intravascular epinephrine as soon as access becomes available, regardless of the interval since the endotracheal dose.
Apply it
One minute after an endotracheal dose, heart rate remains 35/min despite effective ventilation and coordinated compressions. Umbilical venous access is now available. Administer the intravascular dose promptly rather than waiting for 3–5 minutes to elapse. Continue effective ventilation and compressions and reassess the heart-rate response.
Common pitfall: The usual 3–5-minute repeat interval must not delay intravascular administration after an inadequate endotracheal response. Conversely, this exception does not justify routinely repeating intravascular doses every minute. Confusing route-specific doses is another error: the endotracheal dose is larger because delivery into the circulation is less reliable.
43.How is an intravascular epinephrine volume calculated safely?
Calculate the required mass from weight multiplied by the selected intravascular dose, then divide by the solution concentration to obtain volume. The guideline range is 0.01–0.03 mg/kg intravascularly. For a 3-kg newborn prescribed 0.02 mg/kg using 0.1 mg/mL solution, the mass is 0.06 mg and volume is 0.6 mL. Explicitly check route and concentration because the endotracheal dose range and other epinephrine concentrations are different.
Apply it
A 2.5-kg newborn meets epinephrine criteria. The prescribed intravascular dose is 0.02 mg/kg, and the solution is 0.1 mg/mL. Calculate 0.05 mg, then 0.5 mL, and communicate both mass and volume.
Common pitfall: A correct weight-based mass can still yield a dangerous volume if the concentration is assumed; verify the labeled concentration before converting milligrams to milliliters.
44.Which findings support volume expansion during resuscitation?
Consider hypovolemia when the history suggests blood loss and the infant remains pale, poorly perfused and bradycardic despite ventilation, compressions and epinephrine. Volume expansion addresses inadequate circulating volume, which those interventions do not replace. The 2025 guideline permits normal saline or blood at 10–20 mL/kg. Substantial hemorrhage also reduces oxygen-carrying capacity, making blood particularly relevant. Reassess response rather than giving volume routinely for every depressed newborn.
Apply it
After placental bleeding, a newborn remains markedly pale and poorly perfused despite advanced resuscitation. Identify suspected blood loss as a reason to prepare volume expansion while maintaining effective ventilation, compressions and indicated medication.
Common pitfall: Persistent bradycardia alone does not establish hypovolemia; routine fluid loading without blood-loss evidence may distract from ineffective ventilation or another reversible cause.
Resuscitation and Stabilization of Infants Born Pretermnot stated
45.When is CPAP appropriate for a preterm newborn?
A preterm infant who breathes spontaneously but has respiratory distress or hypoxia may benefit from CPAP. Continuous distending pressure helps keep the immature lungs aerated while the infant generates breaths. The distinguishing requirement is effective spontaneous respiratory effort. Apnea, gasping or persistent bradycardia requires assisted ventilation instead. CPAP can avoid unnecessary invasive ventilation, but its adequacy must be reassessed using respiratory effort, heart rate and oxygenation.
Apply it
A 30-week infant has regular spontaneous breaths, grunting and retractions, with heart rate 150/min. Choose CPAP with monitoring rather than routine intubation, and state the respiratory deterioration that would require assisted breaths.
Common pitfall: CPAP supports an infant's own breathing but does not deliver the repeated inflations required when spontaneous respiration is absent or inadequate after initial steps.
46.How should heat loss be prevented in a very preterm infant?
Very preterm infants lose heat rapidly because of immature skin and a high surface-area-to-mass ratio. Use planned thermal measures such as a radiant warmer, polyethylene wrap or bag, head covering and other appropriate adjuncts. For very preterm infants, wrapping without prior body drying limits evaporative loss. Keep the face clear and monitor temperature. Combining warming measures can cause hyperthermia, so protection must be adjusted to measured temperature rather than continued indiscriminately.
Apply it
A 27-week infant is delivered under a prepared radiant warmer. Place the body in appropriate polyethylene protection without first drying it, keep the face exposed and arrange temperature checks while respiratory assessment and support continue.
Common pitfall: Applying the routine term drying sequence to an extremely preterm infant can increase heat loss; using multiple warming devices without monitoring can instead cause overheating.
ANZCOR Guideline 13.8 — The Resuscitation of the Newborn in Special Circumstances · AHA/AAP — Part 5: Neonatal Resuscitation, 2025 Guidelines
47.How does gestation change the cord management decision?
For most preterm infants not requiring immediate resuscitation, defer clamping for at least 60 seconds. Intact cord milking is a different intervention and should not be used below 28 weeks because of increased severe intraventricular hemorrhage risk. For nonvigorous infants at 28–34 weeks, NRP identifies insufficient evidence to recommend routine intact cord milking. Thus, recommendations for one gestational group or one cord intervention cannot simply be transferred to another.
Apply it
A 26-week infant is breathing spontaneously after birth. Plan deferred clamping with thermal protection when immediate resuscitation is unnecessary, and explain why a proposed substitution of intact cord milking crosses an important gestational safety boundary.
Common pitfall: Deferred clamping and cord milking are not interchangeable names; evidence supporting one strategy does not establish the safety of the other at every gestation.
AAP — NRP 9th Edition Science Changes Table · AHA/AAP — Part 5: Neonatal Resuscitation, 2025 Guidelines
48.Why should excessive inflations be avoided in immature lungs?
Excessive tidal volume can injure immature lungs and contribute to inflammatory and circulatory effects associated with brain injury. Deliver enough pressure to establish effective ventilation, then titrate to the response as lung aeration changes. Routine sustained inflations longer than five seconds are potentially harmful below 28 weeks and should not be used. A conspicuous chest expansion is not the goal; adequate gas exchange with improving heart rate is the treatment objective.
Apply it
A 25-week infant needs ventilation. A colleague proposes repeated prolonged inflations to open the lungs quickly. Select controlled assisted breaths with response-guided pressure and explain why the proposed sustained inflation strategy is inappropriate for this gestation.
Common pitfall: More visible chest movement does not necessarily mean better resuscitation; excessive volume and prolonged inflations can add injury while appearing mechanically impressive to the team.
49.How should a very preterm infant's oxygen response be followed?
Very preterm infants may require changing oxygen concentrations as lung aeration and pulmonary gas exchange develop. Begin within the current gestational category, obtain preductal pulse oximetry and adjust against time-specific targets. A starting setting of at least 30% below 32 weeks does not establish that 30% will remain sufficient. Evaluate poor saturation alongside heart rate and ventilation effectiveness so that increasing oxygen does not conceal an unresolved failure of gas delivery.
Apply it
A 29-week infant starts respiratory support at 30% oxygen. At five minutes, a reliable preductal saturation remains below target despite effective ventilation. Adjust oxygen while continuing to assess respiratory mechanics and the infant's cardiovascular response.
Common pitfall: Treating the lower boundary of a starting oxygen category as a ceiling can leave hypoxemia untreated; oxygen must be titrated to the monitored response.
AAP — NRP 9th Edition Science Changes Table · AHA/AAP — Part 5: Neonatal Resuscitation, 2025 Guidelines
Post-resuscitation Carenot stated
50.Which infants need close observation after apparent recovery?
Infants who required prolonged ventilation or advanced resuscitation remain at risk for respiratory, cardiovascular, metabolic and neurologic deterioration after initial stabilization. They need close monitoring in an appropriately staffed and equipped setting. A normal heart rate immediately after treatment does not establish complete recovery. Follow breathing, oxygenation, perfusion, temperature and glucose, and communicate the intervention history so that the receiving team understands both the severity of the event and ongoing support needs.
Apply it
A newborn appears vigorous after intubation and chest compressions. Decide whether routine unmonitored care is sufficient, and arrange continued observation with a handoff describing the resuscitation, current respiratory status and risks requiring reassessment.
Common pitfall: A brief period of normal appearance can obscure ongoing injury or recurrent instability; the intensity of the preceding resuscitation helps determine post-resuscitation monitoring needs.
51.Why should glucose be checked after advanced resuscitation?
Disturbed glucose regulation can accompany serious perinatal illness, and both low and high glucose are associated with adverse outcomes after hypoxic-ischemic injury. Check glucose early after prolonged ventilation or advanced resuscitation and continue monitoring until levels remain normal. Clinical improvement does not exclude a metabolic problem. Detection allows appropriate treatment and reassessment, rather than assuming that improved breathing and heart rate mean the infant's energy supply is also adequate.
Apply it
An infant recovers circulation after epinephrine and is transferred for observation. Include early glucose assessment in the receiving plan even though the infant is now breathing, and arrange repeat measurements until glucose stability is established.
Common pitfall: Waiting for obvious symptoms can miss glucose disturbance in a recovering newborn, whose neurologic or respiratory signs may be attributed incorrectly to the preceding resuscitation.
52.How should unintentional hypothermia be managed after stabilization?
Continue temperature measurement after resuscitation because heat loss may persist during treatment and transfer. An unintentionally hypothermic infant needs rewarming and monitoring, rather than acceptance of low temperature as potentially protective. The 2025 guideline recommends rewarming when temperature is below 36°C after resuscitation, while the optimal rate remains uncertain. Distinguish accidental hypothermia from protocol-directed therapeutic hypothermia, which has specific eligibility, timing and monitoring requirements.
Apply it
After prolonged ventilation, a newborn's temperature is 35.5°C and no therapeutic cooling plan exists. Begin monitored rewarming, assess the thermal environment and explain why accidental cooling should not be treated as equivalent to a prescribed neuroprotective intervention.
Common pitfall: Avoiding rewarming because cooling can sometimes be therapeutic confuses an uncontrolled complication with a carefully selected treatment delivered under a defined specialist protocol.
53.When should evaluation for therapeutic hypothermia begin?
After significant resuscitation, assess mature newborns promptly for hypoxic-ischemic encephalopathy. Therapeutic hypothermia is appropriate for eligible infants with moderate-to-severe HIE under a defined protocol, rather than for every infant who received ventilation. Evaluation must be early because treatment is initiated within six hours of birth. Gestational eligibility matters: the 2025 guideline reports no demonstrated benefit and possible harm below 36 weeks. Examination findings and protocol criteria determine treatment.
Apply it
A 39-week infant required advanced resuscitation and now has reduced consciousness and abnormal tone. Arrange prompt HIE assessment and cooling eligibility review rather than waiting for routine observation to finish or cooling solely because compressions occurred.
Common pitfall: Resuscitation history identifies a need for evaluation, not automatic cooling eligibility; unstructured cooling or extrapolation to substantially preterm infants can expose infants to harm.
Special Considerationsnot stated
54.Which findings suggest pneumothorax during deterioration?
Consider pneumothorax when an infant deteriorates after an initial response, particularly with unilateral reduction in breath sounds, asymmetric chest findings and worsening respiratory or circulatory compromise. First consider readily reversible airway and equipment problems as well. A tension pneumothorax can impair ventilation and circulation and may require emergency decompression. Imaging can confirm a stable infant's diagnosis, but a life-threatening clinical presentation should not wait for routine radiography before appropriate emergency treatment.
Apply it
A ventilated newborn initially improves, then develops sudden hypoxemia, bradycardia and markedly reduced left-sided air entry. Check tube and equipment rapidly while obtaining urgent assessment for an air leak and preparing treatment if tension physiology is present.
Common pitfall: Simply increasing pressure during sudden asymmetric deterioration may worsen an air leak; unilateral findings require reassessment of tube position and pleural pathology rather than automatic escalation.
ANZCOR Guideline 13.8 — The Resuscitation of the Newborn in Special Circumstances · AHA/AAP — Part 5: Neonatal Resuscitation, 2025 Guidelines
55.How does congenital diaphragmatic hernia change respiratory support?
In congenital diaphragmatic hernia, abdominal contents within the thorax can compress hypoplastic lungs. Mask ventilation may inflate the gastrointestinal tract and worsen compression. When respiratory support is needed, prioritize an appropriate advanced airway, usually early intubation, and place a wide-bore orogastric tube for decompression. Use gentle ventilation because functioning lung volume may be limited. The mechanism explains why a routine mask-first approach requires modification in this specific anatomical condition.
Apply it
A newborn with antenatally diagnosed diaphragmatic hernia has inadequate breathing. Prepare early intubation and gastric decompression with gentle ventilation, explaining why repeated mask inflations could worsen thoracic compression rather than simply improving oxygen delivery.
Common pitfall: Interpreting all respiratory distress as ordinary transitional lung disease overlooks the intrathoracic bowel; gastrointestinal inflation can worsen the very mechanical problem limiting lung expansion.
ANZCOR Guideline 13.8 — The Resuscitation of the Newborn in Special Circumstances
56.How should sudden deterioration after successful intubation be approached?
A previously effective airway can become displaced, obstructed or disconnected, so sudden deterioration requires immediate reassessment of the complete ventilation pathway. Check the tube marking, chest movement, bilateral air entry, carbon dioxide information and device connections while maintaining support. Consider pneumothorax if airway and equipment checks do not explain the change. Earlier confirmation is time-specific evidence; it cannot guarantee that tube position and circuit function remain correct after movement or transfer.
Apply it
An intubated infant loses chest movement immediately after transfer to another surface. Inspect tube position and circuit connections promptly while restoring effective ventilation, instead of assuming the earlier placement confirmation excludes a new mechanical problem.
Common pitfall: A documented successful intubation can create false reassurance; movement, obstruction or disconnection may develop later and require fresh assessment of the entire respiratory pathway.
ANZCOR Guideline 13.5 — Tracheal Intubation and Ventilation of the Newborn · AHA/AAP — Part 5: Neonatal Resuscitation, 2025 Guidelines
57.Which breathing pattern suggests congenital upper airway obstruction?
Cyanosis when quiet that improves with crying can suggest nasal obstruction such as choanal atresia, because crying permits oral airflow. A small mandible can also allow the tongue to obstruct the pharynx. These patterns call for assessment of airway anatomy and a strategy that restores patency, such as an oral airway or specialist airway support. Oxygen alone cannot correct a fixed obstruction when effective airflow is not reaching the lungs.
Apply it
A newborn becomes cyanotic while quiet but improves when crying. Recognize the clue to possible nasal obstruction, assess airway patency and obtain appropriate airway assistance rather than repeatedly increasing oxygen without addressing gas movement.
Common pitfall: Improvement during crying can be a diagnostic clue rather than reassurance that intermittent cyanosis is harmless; structural obstruction may still threaten breathing when the infant settles.
ANZCOR Guideline 13.8 — The Resuscitation of the Newborn in Special Circumstances
Ethics and Care at the End of Lifenot stated
58.How should goals of care be discussed before a high-risk birth?
When severe morbidity or early death is likely, discuss prognosis, treatment burdens and family values before birth whenever possible. Decisions should be individualized using the best available information, appropriate specialist consultation and shared decision-making. Gestational age or a diagnostic label alone may not capture the infant's circumstances. Establish and communicate a care plan that identifies intended interventions and comfort measures, while acknowledging uncertainty and the possibility that new information will change decisions.
Apply it
Parents anticipating a birth complicated by a severe anomaly ask whether resuscitation is obligatory. Arrange a shared discussion of likely outcomes, burdens and their goals, then document a plan accessible to the delivery and neonatal teams.
Common pitfall: Presenting uncertain prognosis as certainty or applying a universal cutoff can exclude family values and clinical factors that are essential to an individualized care decision.
AHA/AAP — Part 5: Neonatal Resuscitation, 2025 Guidelines · ANZCOR Guideline 13.10 — Ethical Issues in Resuscitation of the Newborn
59.What should happen when prognosis is uncertain at birth?
When there is genuine uncertainty and no established plan limiting treatment, initiating resuscitation allows assessment while more information becomes available. Starting treatment does not make later redirection ethically impermissible. Noninitiation and subsequent discontinuation of life-sustaining treatment are considered ethically equivalent when appropriately justified. Reassess the diagnosis, response and prognosis with the family and team, rather than allowing the fact that treatment began to determine all later decisions automatically.
Apply it
An unexpected anomaly is identified in an apneic newborn without a prior care plan. Begin appropriate support while obtaining expert assessment and communicating with the family, then revisit goals when the condition and prognosis are clearer.
Common pitfall: Assuming that starting resuscitation commits the team to unlimited treatment can discourage appropriate initial support when the diagnosis or likely outcome is still uncertain.
ANZCOR Guideline 13.10 — Ethical Issues in Resuscitation of the Newborn · AHA/AAP — Part 5: Neonatal Resuscitation, 2025 Guidelines
60.When may resuscitation goals be redirected toward comfort?
If no heart rate is detected despite completion of all effective resuscitation steps, discussion of redirection is reasonable around 20 minutes after birth. This is a contextual discussion point, rather than an automatic stopping rule. Consider treatment quality, potentially reversible causes, available care and family wishes. When life-sustaining interventions are discontinued or withheld, continue active comfort care, warmth, compassionate communication and support for family contact according to their preferences.
Apply it
At approximately 20 minutes, no heart rate is detected after effective advanced resuscitation. Review completeness and reversible causes with the team, involve the family in discussion and prepare continued comfort-focused care if goals are redirected.
Common pitfall: Applying elapsed time alone ignores the quality and completeness of resuscitation; discontinuing invasive treatment also does not mean discontinuing the infant's care or family support.
AHA/AAP — Part 5: Neonatal Resuscitation, 2025 Guidelines · ANZCOR Guideline 13.10 — Ethical Issues in Resuscitation of the Newborn
What to focus on during revision
The following are CertMedbry study suggestions. Use the official outline to check the full scope of your examination.
- Use breathing, heart rate and evidence of lung inflation to distinguish ineffective ventilation from persistent severe bradycardia after effective ventilation.
- Learn the 9th-edition changes: 30–60 breaths/min, gestation-specific starting oxygen, saturation targets beginning at two minutes and assessment-directed corrective maneuvers.
- Practise the escalation thresholds: ventilation for apnea, gasping or persistent heart rate below 100/min; compressions below 60/min after effective ventilation; epinephrine after coordinated support remains unsuccessful.
- Connect advanced airway confirmation, compression technique, vascular access and route-specific medication calculations to uninterrupted respiratory support.
- Differentiate spontaneous preterm breathing with distress from apnea, deferred cord clamping from cord milking, and accidental hypothermia from protocol-directed therapeutic cooling.
- Include post-resuscitation glucose and temperature assessment, mechanical causes of deterioration, and individualized family-centered goals of care.
A practical preparation plan
1. Map the full Advanced curriculum
Use the official lessons 1–11 as your study map. Mark these 60 concepts as selected learning targets and identify additional textbook material within each lesson. Keep supplemental lessons 12–16 separate from tested scope.
2. Explain the ventilation decision aloud
For short cases, state the breathing pattern, heart rate, evidence of chest movement and next intervention. Practise distinguishing a poor mask seal or obstruction from a genuine failure to recover after effective lung inflation.
3. Build a current numerical reference
Recall the current ventilation rate, oxygen starting categories, time-specific saturation targets, compression threshold and coordination. Add route-specific epinephrine calculations with explicit weight, dose, concentration and volume.
4. Rehearse coordinated skills
Use supervised simulation to practise equipment checks, role allocation, corrective ventilation, airway confirmation and 3:1 coordination. Report physiological responses clearly and preserve ventilation while other clinicians prepare access or medication.
5. Review reasoning with the learning drills
Complete the 20 questions before reading explanations. For each error, identify the missed clinical cue and explain why each alternative is less suitable. Use the flashcards later for active recall; the drills do not predict course completion.
6. Integrate recovery and family care
Finish each scenario with an appropriate monitoring plan, glucose and temperature assessment, a clear handoff and family communication. Practise goals-of-care discussions that account for prognosis, uncertainty, treatment response and continuing comfort.
Use your sample score as a starting point
The free set contains 20 original practice questions. It is a small learning sample, not an official examination or a validated pass prediction. Review each explanation and its source before moving to another topic.
Start the free sampleOfficial sources and updates
- AAP — Provider
- AAP — NRP 9th Edition Materials
- AAP — NRP New Initiatives & 9th Edition
- AAP — NRP 9th Edition Science Changes Table
- AHA/AAP — Part 5: Neonatal Resuscitation, 2025 Guidelines
- ANZCOR Guideline 13.1 — Introduction to Resuscitation of the Newborn
- ANZCOR Guideline 13.2 — Planning for Newborn Resuscitation and Identification of the Newborn at Risk
- ANZCOR Guideline 13.3 — Assessment of the Newborn
- ANZCOR Guideline 13.4 — Airway Management and Mask Ventilation of the Newborn
- ANZCOR Guideline 13.5 — Tracheal Intubation and Ventilation of the Newborn
- ANZCOR Guideline 13.6 — Chest Compressions during Resuscitation of the Newborn
- ANZCOR Guideline 13.7 — Medication or Fluids for the Resuscitation of the Newborn
- ILCOR — 2025 CoSTR Summary: Neonatal Life Support
- ANZCOR Guideline 13.8 — The Resuscitation of the Newborn in Special Circumstances
- ANZCOR Guideline 13.9 — After the Resuscitation of a Newborn
- ANZCOR Guideline 13.10 — Ethical Issues in Resuscitation of the Newborn
Confirm current eligibility, fees, scheduling and policies directly with the examination provider. CertMedbry is independent and is not endorsed by these organisations. How we handle content and corrections.