Resuscitation 95 (2015) 1–80
Contents lists available at ScienceDirect
Resuscitation
journal homepage: www.elsevier.com/locate/resuscitation
European Resuscitation Council Guidelines for Resuscitation 2015
Section 1. Executive summary
Koenraad G. Monsieursa,b,∗
, Jerry P. Nolanc,d
, Leo L. Bossaerte
, Robert Greiff,g
,
Ian K. Maconochieh
, Nikolaos I. Nikolaoui
, Gavin D. Perkinsj,p
, Jasmeet Soark
,
Anatolij Truhláˇrl,m
, Jonathan Wyllien
, David A. Zidemano
,
on behalf of the ERC Guidelines 2015 Writing Group1
a
Emergency Medicine, Faculty of Medicine and Health Sciences, University of Antwerp, Antwerp, Belgium
b
Faculty of Medicine and Health Sciences, University of Ghent, Ghent, Belgium
c
Anaesthesia and Intensive Care Medicine, Royal United Hospital, Bath, UK
d
School of Clinical Sciences, University of Bristol, Bristol, UK
e
University of Antwerp, Antwerp, Belgium
f
Department of Anaesthesiology and Pain Medicine, University Hospital Bern, Bern, Switzerland
g
University of Bern, Bern, Switzerland
h
Paediatric Emergency Medicine Department, Imperial College Healthcare NHS Trust and BRC Imperial NIHR, Imperial College, London, UK
i
Cardiology Department, Konstantopouleio General Hospital, Athens, Greece
j
Warwick Medical School, University of Warwick, Coventry, UK
k
Anaesthesia and Intensive Care Medicine, Southmead Hospital, Bristol, UK
l
Emergency Medical Services of the Hradec Králové Region, Hradec Králové, Czech Republic
m
Department of Anaesthesiology and Intensive Care Medicine, University Hospital Hradec Králové, Hradec Králové, Czech Republic
n
Department of Neonatology, The James Cook University Hospital, Middlesbrough, UK
o
Imperial College Healthcare NHS Trust, London, UK
p
Heart of England NHS Foundation Trust, Birmingham, UK
Introduction
This executive summary provides the essential treatment algorithms
for the resuscitation of children and adults and highlights
the main guideline changes since 2010. Detailed guidance is provided
in each of the ten sections, which are published as individual
papers within this issue of Resuscitation. The sections of the ERC
Guidelines 2015 are:
1. Executive summary
2. Adult basic life support and automated external deﬁbrillation1
3. Adult advanced life support2
4. Cardiac arrest in special circumstances3
5. Post-resuscitation care4
6. Paediatric life support5
7. Resuscitation and support of transition of babies at birth6
8. Initial management of acute coronary syndromes7
9. First aid8
10. Principles of education in resuscitation9
11. The ethics of resuscitation and end-of-life decisions10
∗ Corresponding author.
E-mail address: koen.monsieurs@uza.be (K.G. Monsieurs).
1
See Appendix 1 for the ERC 2015 Guidelines Writing Group.
The ERC Guidelines 2015 that follow do not deﬁne the only way
that resuscitation can be delivered; they merely represent a widely
accepted view of how resuscitation should be undertaken both
safely and effectively. The publication of new and revised treatment
recommendations does not imply that current clinical care is
either unsafe or ineffective.
Summary of the changes since the 2010 Guidelines
Adult basic life support and automated external deﬁbrillation
• The ERC Guidelines 2015 highlight the critical importance of
the interactions between the emergency medical dispatcher, the
bystander who provides CPR and the timely deployment of an
AED. An effective, co-ordinated community response that draws
these elements together is key to improving survival from outof-hospital
cardiac arrest (Fig. 1.1).
• The emergency medical dispatcher plays an important role in
the early diagnosis of cardiac arrest, the provision of dispatcherassisted
CPR (also known as telephone CPR), and the location and
dispatch of an AED.
• The bystander who is trained and able should assess the collapsed
victim rapidly to determine if the victim is unresponsive and not
breathing normally and then immediately alert the emergency
services.
http://dx.doi.org/10.1016/j.resuscitation.2015.07.038
0300-9572/© 2015 European Resuscitation Council. Published by Elsevier Ireland Ltd. All rights reserved.
2 K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80
COMMUNITY
RESPONSE
SAVES
LIVES
112
Fig. 1.1. The interactions between the emergency medical dispatcher, the bystander
who provides CPR and the timely use of an automated external deﬁbrillator are the
key ingredients for improving survival from out of hospital cardiac arrest.
• The victim who is unresponsive and not breathing normally is
in cardiac arrest and requires CPR. Bystanders and emergency
medical dispatchers should be suspicious of cardiac arrest in
any patient presenting with seizures and should carefully assess
whether the victim is breathing normally.
• CPR providers should perform chest compressions for all victims
in cardiac arrest. CPR providers trained and able to perform rescue
breaths should combine chest compressions and rescue breaths.
Our conﬁdence in the equivalence between chest compressiononly
and standard CPR is not sufﬁcient to change current practice.
• High-quality CPR remains essential to improving outcomes. The
guidelines on compression depth and rate have not changed. CPR
providers should ensure chest compressions of adequate depth
(at least 5 cm but no more than 6 cm) with a rate of 100–120 compressions
min−1. After each compression allow the chest to recoil
completely and minimise interruptions in compressions. When
providing rescue breaths/ventilations spend approximately 1 s
inﬂating the chest with sufﬁcient volume to ensure the chest rises
visibly. The ratio of chest compressions to ventilations remains
30:2. Do not interrupt chest compressions for more than 10 s to
provide ventilations.
• Deﬁbrillation within 3–5 min of collapse can produce survival
rates as high as 50–70%. Early deﬁbrillation can be achieved
through CPR providers using public access and on-site AEDs. Public
access AED programmes should be actively implemented in
public places that have a high density of citizens.
• The adult CPR sequence can be used safely in children who are
unresponsive and not breathing normally. Chest compression
depths in children should be at least one third of the depth of
the chest (for infants that is 4 cm, for children 5 cm).
• A foreign body causing severe airway obstruction is a medical
emergency and requires prompt treatment with back blows and,
if that fails to relieve the obstruction, abdominal thrusts. If the
victim becomes unresponsive CPR should be started immediately
whilst help is summoned.
Adult advanced life support
The ERC 2015 ALS Guidelines emphasise improved care and
implementation of the guidelines in order to improve patient
focused outcomes.11 The key changes since 2010 are:
• Continued emphasis on the use of rapid response systems for care
of the deteriorating patient and prevention of in-hospital cardiac
arrest.
• Continued emphasis on minimally interrupted high-quality chest
compressions throughout any ALS intervention: chest compressions
are paused brieﬂy only to enable speciﬁc interventions. This
includes minimising interruptions in chest compressions for less
than 5 s to attempt deﬁbrillation.
• Keeping the focus on the use of self-adhesive pads for deﬁbrillation
and a deﬁbrillation strategy to minimise the preshock pause,
although we recognise that deﬁbrillator paddles are used in some
settings.
• There is a new section on monitoring during ALS with an
increased emphasis on the use of waveform capnography to conﬁrm
and continually monitor tracheal tube placement, quality of
CPR and to provide an early indication of return of spontaneous
circulation (ROSC).
• There are a variety of approaches to airway management during
CPR and a stepwise approach based on patient factors and the
skills of the rescuer is recommended.
• The recommendations for drug therapy during CPR have not
changed, but there is greater equipoise concerning the role of
drugs in improving outcomes from cardiac arrest.
• The routine use of mechanical chest compression devices is
not recommended, but they are a reasonable alternative in
situations where sustained high-quality manual chest compressions
are impractical or compromise provider safety.
• Peri-arrest ultrasound may have a role in identifying reversible
causes of cardiac arrest.
• Extracorporeal life support techniques may have a role as a rescue
therapy in selected patients where standard ALS measures are not
successful.
Cardiac arrest in special circumstances
Special causes
This section has been structured to cover the potentially
reversible causes of cardiac arrest that must be identiﬁed or
excluded during any resuscitation. They are divided into two groups
of four – 4Hs and 4Ts: hypoxia; hypo-/hyperkalaemia and other
electrolyte disorders; hypo-/hyperthermia; hypovolaemia; tension
pneumothorax; tamponade (cardiac); thrombosis (coronary and
pulmonary); toxins (poisoning).
• Survival after an asphyxia-induced cardiac arrest is rare and survivors
usually have severe neurological impairment. During CPR,
early effective ventilation of the lungs with supplementary oxygen
is essential.
• A high degree of clinical suspicion and aggressive treatment can
prevent cardiac arrest from electrolyte abnormalities. The new
algorithm provides clinical guidance to emergency treatment of
life-threatening hyperkalaemia.
• Hypothermic patients without signs of cardiac instability can
be rewarmed externally using minimally invasive techniques.
Patients with signs of cardiac instability should be transferred
directly to a centre capable of extracorporeal life support (ECLS).
• Early recognition and immediate treatment with intramuscular
adrenaline remains the mainstay of emergency treatment for
anaphylaxis.
• A new treatment algorithm for traumatic cardiac arrest was
developed to prioritise the sequence of life-saving measures.
• Transport with continuing CPR may be beneﬁcial in selected
patients where there is immediate hospital access to the catheterisation
laboratory and experience in percutaneous coronary
intervention (PCI) with ongoing CPR.
• Recommendations for administration of ﬁbrinolytics when pulmonary
embolism is the suspected cause of cardiac arrest remain
unchanged.
K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80 3
Special environments
The special environments section includes recommendations
for the treatment of cardiac arrest occurring in speciﬁc locations.
These locations are specialised healthcare facilities (e.g. operating
theatre, cardiac surgery, catheterisation laboratory, dialysis unit,
dental surgery), commercial airplanes or air ambulances, ﬁeld of
play, outside environment (e.g. drowning, difﬁcult terrain, high altitude,
avalanche burial, lightning strike and electrical injuries) or the
scene of a mass casualty incident.
• A new section covers the common causes and relevant modiﬁcation
to resuscitative procedures in patients undergoing surgery.
• In patients following major cardiac surgery, key to successful
resuscitation is recognising the need to perform immediate emergency
resternotomy, especially in the context of tamponade or
haemorrhage, where external chest compressions may be inef-
fective.
• Cardiac arrest from shockable rhythms (ventricular ﬁbrillation
(VF) or pulseless ventricular tachycardia (pVT)) during cardiac
catheterisation should immediately be treated with up to
three stacked shocks before starting chest compressions. Use of
mechanical chest compression devices during angiography is recommended
to ensure high-quality chest compressions and to
reduce the radiation burden to personnel during angiography
with ongoing CPR.
• AEDs and appropriate CPR equipment should be mandatory on
board of all commercial aircraft in Europe, including regional and
low-cost carriers. Consider an over-the-head technique of CPR if
restricted access precludes a conventional method.
• Sudden and unexpected collapse of an athlete on the ﬁeld of play
is likely to be cardiac in origin and requires rapid recognition and
early deﬁbrillation.
• Submersion exceeding 10 min is associated with poor outcome.
Bystanders play a critical role in early rescue and resuscitation.
Resuscitation strategies for those in respiratory or cardiac arrest
continue to prioritise oxygenation and ventilation.
• The chances of good outcome from cardiac arrest in difﬁcult
terrain or mountains may be reduced because of delayed
access and prolonged transport. There is a recognised role of
air rescue and availability of AEDs in remote but often-visited
locations.
• The cut-off criteria for prolonged CPR and extracorporeal
rewarming of avalanche victims in cardiac arrest have become
more stringent to reduce the number of futile cases treated with
extracorporeal life support (ECLS).
• Safety measures are emphasised when providing CPR to the victim
of an electrical injury.
• During mass casualty incidents (MCIs), if the number of casualties
overwhelms healthcare resources, withhold CPR for those
without signs of life.
Special patients
The section on special patients gives guidance for CPR in patients
with severe comorbidities (asthma, heart failure with ventricular
assist devices, neurological disease, obesity) and those with speciﬁc
physiological conditions (pregnancy, elderly people).
• In patients with ventricular assist devices (VADs), conﬁrmation
of cardiac arrest may be difﬁcult. If during the ﬁrst 10 days after
surgery, cardiac arrest does not respond to deﬁbrillation, perform
resternotomy immediately.
• Patients with subarachnoid haemorrhage may have ECG changes
that suggest an acute coronary syndrome (ACS). Whether a computed
tomography (CT) brain scan is done before or after coronary
angiography will depend on clinical judgement.
• No changes to the sequence of actions are recommended in resuscitation
of obese patients, but delivery of effective CPR may be
challenging. Consider changing rescuers more frequently than
the standard 2-min interval. Early tracheal intubation is recom-
mended.
• For the pregnant woman in cardiac arrest, high-quality CPR with
manual uterine displacement, early ALS and delivery of the foetus
if early return of spontaneous circulation (ROSC) is not achieved
remain key interventions.
Post-resuscitation care
This section is new to the European Resuscitation Council Guidelines;
in 2010 the topic was incorporated into the section on ALS.12
The ERC has collaborated with the European Society of Intensive
Care Medicine to produce these post-resuscitation care guidelines,
which recognise the importance of high-quality post-resuscitation
care as a vital link in the Chain of Survival.13
The most important changes in post-resuscitation care since
2010 include:
• There is a greater emphasis on the need for urgent coronary
catheterisation and percutaneous coronary intervention
(PCI) following out-of-hospital cardiac arrest of likely cardiac
cause.
• Targeted temperature management remains important but there
is now an option to target a temperature of 36 ◦C instead of
the previously recommended 32–34 ◦C. The prevention of fever
remains very important.
• Prognostication is now undertaken using a multimodal strategy
and there is emphasis on allowing sufﬁcient time for neurological
recovery and to enable sedatives to be cleared.
• A novel section has been added which addresses rehabilitation
after survival from a cardiac arrest. Recommendations include the
systematic organisation of follow-up care, which should include
screening for potential cognitive and emotional impairments and
provision of information.
Paediatric life support
Guideline changes have been made in response to convincing
new scientiﬁc evidence and, by using clinical, organisational and
educational ﬁndings, they have been adapted to promote their use
and ease for teaching.
Basic life support
• The duration of delivering a breath is about 1 s, to coincide with
adult practice.
• For chest compressions, the lower sternum should be depressed
by at least one third the anterior-posterior diameter of the chest
(4 cm for the infant and 5 cm for the child).
Managing the seriously ill child
• If there are no signs of septic shock, then children with a febrile
illness should receive ﬂuid with caution and reassessment following
its administration. In some forms of septic shock, restricting
ﬂuids with isotonic crystalloid may be of beneﬁt as compared to
liberal use of ﬂuids.
• For cardioversion of a supraventricular tachycardia (SVT), the initial
dose has been revised to 1 J kg-1.
Paediatric cardiac arrest algorithm
• Many of the features are common with adult practice.
Post-resuscitation care
• Prevent fever in children who have return of spontaneous circulation
(ROSC) from an out-of-hospital setting.
4 K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80
• Targeted temperature management of children post-ROSC should
be either normothermia or mild hypothermia.
• There is no single predictor for when to stop resuscitation.
Resuscitation and support of transition of babies at birth
The following are the main changes that have been made to the
ERC guidelines for resuscitation at birth in 2015:
• Support of transition: Recognising the unique situation of the
baby at birth, who rarely requires resuscitation but sometimes
needs medical help during the process of postnatal transition.
The term support of transition has been introduced to better distinguish
between interventions that are needed to restore vital
organ functions (resuscitation) or to support transition.
• Cord clamping: For uncompromised babies, a delay in cord
clamping of at least 1 min from the complete delivery of the
infant, is now recommended for term and preterm babies. As
yet there is insufﬁcient evidence to recommend an appropriate
time for clamping the cord in babies who require resuscitation at
birth.
• Temperature: The temperature of newly born non-asphyxiated
infants should be maintained between 36.5 ◦C and 37.5 ◦C after
birth. The importance of achieving this has been highlighted and
reinforced because of the strong association with mortality and
morbidity. The admission temperature should be recorded as a
predictor of outcome as well as a quality indicator.
• Maintenance of temperature: At <32 weeks gestation, a combination
of interventions may be required in addition to maintain
the temperature between 36.5 ◦C and 37.5 ◦C after delivery
through admission and stabilisation. These may include warmed
humidiﬁed respiratory gases, increased room temperature plus
plastic wrapping of body and head, plus thermal mattress or a
thermal mattress alone, all of which have been effective in reducing
hypothermia.
• Optimal assessment of heart rate: It is suggested in babies
requiring resuscitation that the ECG can be used to provide a rapid
and accurate estimation of heart rate.
• Meconium: Tracheal intubation should not be routine in the
presence of meconium and should only be performed for suspected
tracheal obstruction. The emphasis should be on initiating
ventilation within the ﬁrst minute of life in non-breathing or
ineffectively breathing infants and this should not be delayed.
• Air/oxygen: Ventilatory support of term infants should start with
air. For preterm infants, either air or a low concentration of oxygen
(up to 30%) should be used initially. If, despite effective
ventilation, oxygenation (ideally guided by oximetry) remains
unacceptable, use of a higher concentration of oxygen should be
considered.
• CPAP: Initial respiratory support of spontaneously breathing
preterm infants with respiratory distress may be provided by
CPAP rather than intubation.
Acute coronary syndromes
The following is a summary of the most important new views
and changes in recommendations for the diagnosis and treatment
of acute coronary syndromes (ACS).
Diagnostic Interventions in ACS
• Pre-hospital recording of a 12-lead electrocardiogram (ECG) is
recommended in patients with suspected ST segment elevation
acute myocardial infarction (STEMI). For those with STEMI this
expedites pre-hospital and in-hospital reperfusion and reduces
mortality.
• Non-physician ECG STEMI interpretation with or without the aid
of computer ECG STEMI interpretation is suggested if adequate
diagnostic performance can be maintained through carefully
monitored quality assurance programmes.
• Pre-hospital STEMI activation of the catheterisation laboratory
may not only reduce treatment delays but may also reduce
patient mortality.
• The use of negative high-sensitivity cardiac troponins (hs-cTn)
during initial patient evaluation cannot be used as a standalone
measure to exclude an ACS, but in patients with very low risk
scores may justify early discharge.
Therapeutic Interventions in ACS
• Adenosine diphosphate (ADP) receptor antagonists (clopidogrel,
ticagrelor, or prasugrel-with speciﬁc restriction), may be given
either pre-hospital or in the ED for STEMI patients planned for
primary PCI.
• Unfractionated heparin (UFH) can be administered either in the
pre-hospital or in-hospital setting in patients with STEMI and a
planned primary PCI approach.
• Pre-hospital enoxaparin may be used as an alternative to prehospital
UFH for STEMI.
• Patients with acute chest pain with presumed ACS do not need
supplemental oxygen unless they present with signs of hypoxia,
dyspnoea, or heart failure.
Reperfusion decisions in STEMI
Reperfusion decisions have been reviewed in a variety of possible
local situations.
• When ﬁbrinolysis is the planned treatment strategy, we recommend
using pre-hospital ﬁbrinolysis in comparison to in-hospital
ﬁbrinolysis for STEMI where transport times are >30 min and
pre-hospital personnel are well trained.
• In geographic regions where PCI facilities exist and are available,
direct triage and transport for PCI is preferred to pre-hospital
ﬁbrinolysis for STEMI.
• Patients presenting with STEMI in the emergency department
(ED) of a non-PCI capable hospital should be transported
immediately to a PCI centre provided that treatment delays
for PPCI are less than 120 min (60–90 min for early presenters
and those with extended infarctions), otherwise patients
should receive ﬁbrinolysis and be transported to a PCI
centre.
• Patients who receive ﬁbrinolytic therapy in the emergency
department of a non-PCI centre should be transported if possible
for early routine angiography (within 3–24 h from ﬁbrinolytic
therapy) rather than be transported only if indicated by the presence
of ischaemia.
• PCI in less than 3 h following administration of ﬁbrinolytics is
not recommended and can be performed only in case of failed
ﬁbrinolysis.
Hospital reperfusion decisions after return of spontaneous
circulation
• We recommend emergency cardiac catheterisation lab evaluation
(and immediate PCI if required), in a manner similar
to patients with STEMI without cardiac arrest, in selected
adult patients with ROSC after out-of-hospital cardiac arrest
(OHCA) of suspected cardiac origin with ST-elevation on
ECG.
• In patients who are comatose and with ROSC after OHCA of suspected
cardiac origin without ST-elevation on ECG It is reasonable
K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80 5
to consider an emergency cardiac catheterisation lab evaluation
in patients with the highest risk of coronary cause cardiac arrest.
First aid
A section on ﬁrst aid is included for the ﬁrst time in the 2015
ERC Guidelines.
Principles of education in resuscitation
The following is a summary of the most important new views or
changes in recommendations for education in resuscitation since
the last ERC guidelines in 2010.
Training
• In centres that have the resources to purchase and maintain high
ﬁdelity manikins, we recommend their use. The use of lower
ﬁdelity manikins however is appropriate for all levels of training
on ERC courses.
• Directive CPR feedback devices are useful for improving compression
rate, depth, release, and hand position. Tonal devices
improve compression rates only and may have a detrimental
effect on compression depth while rescuers focus on the rate.
• The intervals for retraining will differ according to the characteristics
of the participants (e.g. lay or healthcare). It is known that
CPR skills deteriorate within months of training and therefore
annual retraining strategies may not be frequent enough. Whilst
optimal intervals are not known, frequent ‘low dose’ retraining
may be beneﬁcial.
• Training in non-technical skills (e.g. communication skills, team
leadership and team member roles) is an essential adjunct to
the training of technical skills. This type of training should be
incorporated into life support courses.
• Ambulance service dispatchers have an inﬂuential role to play in
guiding lay rescuers how to deliver CPR. This role needs speciﬁc
training in order to deliver clear and effective instructions in a
stressful situation.
Implementation
• Data-driven performance-focused debrieﬁng has been shown to
improve performance of resuscitation teams. We highly recommend
its use for teams managing patients in cardiac arrest.
• Regional systems including cardiac arrest centres are to be
encouraged, as there is an association with increased survival
and improved neurological outcome in victims of out-of-hospital
cardiac arrest.
• Novel systems are being developed to alert bystanders to the
location of the nearest AED. Any technology that improves the
delivery of swift bystander CPR with rapid access to an AED is to
be encouraged.
• “It takes a system to save a life” [http://www.
resuscitationacademy.com/]. Healthcare systems with a responsibility
for the management of patients in cardiac arrest (e.g.
EMS organisations, cardiac arrest centres) should evaluate their
processes to ensure that they are able to deliver care that ensures
the best achievable survival rates.
The ethics of resuscitation and end-of-life decisions
The 2015 ERC Guidelines include a detailed discussion of the
ethical principles underpinning cardiopulmonary resuscitation.
The international consensus on cardiopulmonary
resuscitation science
The International Liaison Committee on Resuscitation (ILCOR,
www.ilcor.org) includes representatives from the American Heart
Association (AHA), the European Resuscitation Council (ERC), the
Heart and Stroke Foundation of Canada (HSFC), the Australian and
New Zealand Committee on Resuscitation (ANZCOR), the Resuscitation
Council of Southern Africa (RCSA), the Inter-American Heart
Foundation (IAHF), and the Resuscitation Council of Asia (RCA).
Since 2000, researchers from the ILCOR member councils have
evaluated resuscitation science in 5-yearly cycles. The most recent
International Consensus Conference was held in Dallas in February
2015 and the published conclusions and recommendations from
this process form the basis of these ERC Guidelines 2015.14
In addition to the six ILCOR task forces from 2010 (basic life support
(BLS); advanced life support (ALS); acute coronary syndromes
(ACS); paediatric life support (PLS); neonatal life support (NLS);
and education, implementation and teams (EIT)) a First Aid task
force was created. The task forces identiﬁed topics requiring evidence
evaluation and invited international experts to review them.
As in 2010, a comprehensive conﬂict of interest (COI) policy was
applied.14
For each topic, two expert reviewers were invited to undertake
independent evaluations. Their work was supported by a new
and unique online system called SEERS (Scientiﬁc Evidence Evaluation
and Review System), developed by ILCOR. To assess the
quality of the evidence and the strength of the recommendations,
ILCOR adopted the GRADE (Grading of Recommendations Assessment,
Development and Evaluation) methodology.15 The ILCOR
2015 Consensus Conference was attended by 232 participants representing
39 countries; 64% of the attendees came from outside
the United States. This participation ensured that this ﬁnal publication
represents a truly international consensus process. During the
three years leading up to this conference, 250 evidence reviewers
from 39 countries reviewed thousands of relevant, peer-reviewed
publications to address 169 speciﬁc resuscitation questions, each
in the standard PICO (Population, Intervention, Comparison, Outcome)
format. Each science statement summarised the experts’
interpretation of all relevant data on the speciﬁc topic and the
relevant ILCOR task force added consensus draft treatment recommendations.
Final wording of science statements and treatment
recommendations was completed after further review by ILCOR
member organisations and by the editorial board, and published
in Resuscitation and Circulation as the 2015 Consensus on Science
and Treatment Recommendations (CoSTR).16,17 The member
organisations forming ILCOR will publish resuscitation guidelines
that are consistent with this CoSTR document, but will also consider
geographic, economic and system differences in practice, and
the availability of medical devices and drugs.
From science to guidelines
These ERC Guidelines 2015 are based on the 2015 CoSTR document
and represent consensus among the members of the ERC
General Assembly. New to the ERC Guidelines 2015 are the First Aid
Guidelines, created in parallel with the First Aid Task Force of ILCOR,
and guidelines on post-resuscitation care. For each section of the
ERC Guidelines 2015, a writing group was assigned that drafted and
agreed on the manuscript prior to approval by the General Assembly
and the ERC Board. In areas where ILCOR had not conducted a
systematic review, the ERC writing group undertook focused literature
reviews. The ERC considers these new guidelines to be the most
effective and easily learned interventions that can be supported
by current knowledge, research and experience. Inevitably, even
6 K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80
within Europe, differences in the availability of drugs, equipment,
and personnel will necessitate local, regional and national adaptation
of these guidelines. Some of the recommendations made in the
ERC Guidelines 2010 remain unchanged in 2015, either because no
new studies have been published or because new evidence since
2010 has merely strengthened the evidence that was already avail-
able.
Adult basic life support and automated external
deﬁbrillation
The basic life support (BLS) and automated external deﬁbrillation
(AED) chapter contains guidance on the techniques used
during the initial resuscitation of an adult cardiac arrest victim.
This includes BLS (airway, breathing and circulation support without
the use of equipment other than a protective device) and the use
of an AED. In addition, simple techniques used in the management
of choking (foreign body airway obstruction) are included. Guidelines
for the use of manual deﬁbrillators and starting in-hospital
resuscitation are found in section 3.2 A summary of the recovery
position is included, with further information provided in the First
Aid Chapter.
The guidelines are based on the ILCOR 2015 Consensus on Science
and Treatment Recommendations (CoSTR) for BLS/AED.18 The
ILCOR review focused on 23 key topics leading to 32 Treatment Recommendations
in the domains of early access and cardiac arrest
prevention, early, high-quality CPR, and early deﬁbrillation.
Cardiac arrest
Sudden cardiac arrest (SCA) is one of the leading causes of death
in Europe. On initial heart-rhythm analysis, about 25–50% of SCA
victims have ventricular ﬁbrillation (VF)19–21 but when the rhythm
is recorded soon after collapse, in particular by an on-site AED, the
proportion of victims in VF can be as high as 76%.22,23 The recommended
treatment for VF cardiac arrest is immediate bystander
CPR and early electrical deﬁbrillation. Most cardiac arrests of noncardiac
origin have respiratory causes, such as drowning (among
them many children) and asphyxia. Rescue breaths as well as chest
compressions are critical for successful resuscitation of these vic-
tims.
The chain of survival
The Chain of Survival summarises the vital links needed for successful
resuscitation (Fig. 1.2). Most of these links apply to victims
of both primary cardiac and asphyxial arrest.13
1: Early recognition and call for help
Recognising the cardiac origin of chest pain, and calling the
emergency services before a victim collapses, enables the emergency
medical service to arrive sooner, hopefully before cardiac
arrest has occurred, thus leading to better survival.24–26
Once cardiac arrest has occurred, early recognition is critical
to enable rapid activation of the EMS and prompt initiation of
bystander CPR. The key observations are unresponsiveness and not
breathing normally.
2: Early bystander CPR
The immediate initiation of CPR can double or quadruple survival
after cardiac arrest.27–29 If able, bystanders with CPR training
should give chest compressions together with ventilations. When a
bystander has not been trained in CPR, the emergency medical dispatcher
should instruct him or her to give chest-compression-only
CPR while awaiting the arrival of professional help.30–32
3: Early deﬁbrillation
Deﬁbrillation within 3–5 min of collapse can produce survival
rates as high as 50–70%. This can be achieved by public access and
onsite AEDs.21,23,33
4: Early advanced life support and standardised post-resuscitation
care
Advanced life support with airway management, drugs and
correcting causal factors may be needed if initial attempts at resuscitation
are un-successful.
The critical need for bystanders to act
In most communities, the median time from emergency
call to emergency medical service arrival (response interval) is
5–8 min,22,34–36 or 8–11 min to a ﬁrst shock.21,28 During this time
the victim’s survival depends on bystanders who initiate CPR and
use an automated external deﬁbrillator (AED).22,37
Fig. 1.2. The Chain of Survival.
K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80 7
Recognition of cardiac arrest
Recognising cardiac arrest can be challenging. Both bystanders
and emergency call handlers (emergency medical dispatchers)
have to diagnose cardiac arrest promptly in order to activate
the chain of survival. Checking the carotid pulse (or any other
pulse) has proved to be an inaccurate method for conﬁrming the
presence or absence of circulation.38–42 Agonal breathing may be
present in up to 40% of victims in the ﬁrst minutes after cardiac
arrest, and if responded to as a sign of cardiac arrest, is associated
with higher survival rates.43 The signiﬁcance of agonal breathing
should be emphasised during basic life support training.44,45
Bystanders should suspect cardiac arrest and start CPR if the victim
is unresponsive and not breathing normally. Bystanders should
be suspicious of cardiac arrest in any patient presenting with
seizures.46,47
Role of the emergency medical dispatcher
Dispatcher recognition of cardiac arrest
Patients who are unresponsive and not breathing normally
should be presumed to be in cardiac arrest. Agonal breathing is
often present, and callers may mistakenly believe the victim is
still breathing normally.48–57 Offering dispatchers additional education,
speciﬁcally addressing the identiﬁcation and signiﬁcance of
agonal breathing, can improve cardiac arrest recognition, increase
the provision of telephone-CPR,55,57 and reduce the number of
missed cardiac arrest cases.52
If the initial emergency call is for a person suffering seizures, the
call taker should be highly suspicious of cardiac arrest, even if the
caller reports that the victim has a prior history of epilepsy.49,58
Dispatcher-assisted CPR
Bystander CPR rates are low in many communities. Dispatcherassisted
CPR (telephone-CPR) instructions improve bystander
CPR rates,56,59–62 reduce the time to ﬁrst CPR,57,59,62–64 increase
the number of chest compressions delivered60 and improve
patient outcomes following out-of-hospital cardiac arrest (OHCA)
in all patient groups.30–32,56,61,63,65 Dispatchers should provide
telephone-CPR instructions in all cases of suspected cardiac arrest
unless a trained provider is already delivering CPR. Where instructions
are required for an adult victim, dispatchers should provide
chest-compression-only CPR instructions. If the victim is a child,
dispatchers should instruct callers to provide both ventilations and
chest compressions.
Adult BLS sequence
Fig. 1.3 presents the step-by-step sequence for the trained
provider. It continues to highlight the importance of ensuring rescuer,
victim and bystander safety. Calling for additional help (if
required) is incorporated in the alerting emergency services step
below. For clarity the algorithm is presented as a linear sequence
of steps. It is recognised that the early steps of checking response,
opening the airway, checking for breathing and calling the emergency
medical dispatcher may be accomplished simultaneously or
in rapid succession.
Those who are not trained to recognise cardiac arrest and start
CPR would not be aware of these guidelines and therefore require
dispatcher assistance whenever they make the decision to call 112
(Fig. 1.4).
Unresponsive and
not breathing normally
Call Emergency Services
Give 30 chest compressions
Give 2 rescue breaths
Continue CPR 30:2
As soon as AED arrives - switch
it on and follow instructions
Fig. 1.3. The basic life support/automated external deﬁbrillation (BLS/AED) algo-
rithm.
Opening the airway and checking for breathing
The trained provider should assess the collapsed victim rapidly
to determine if they are responsive and breathing normally. Open
the airway using the head tilt and chin lift technique whilst
assessing whether the person is breathing normally.
Alerting emergency services
112 is the European emergency phone number, available everywhere
in the EU, free of charge. It is possible to call 112 from
ﬁxed and mobile phones to contact any emergency service: an
ambulance, the ﬁre brigade or the police. Early contact with the
emergency services will facilitate dispatcher assistance in the
recognition of cardiac arrest, telephone instruction on how to perform
CPR, emergency medical service/ﬁrst responder dispatch, and
on locating and dispatching of an AED.66–69
Starting chest compressions
In adults needing CPR, there is a high probability of a primary
cardiac cause. When blood ﬂow stops after cardiac arrest, the blood
in the lungs and arterial system remains oxygenated for some
minutes. To emphasise the priority of chest compressions, it is recommended
that CPR should start with chest compressions rather
than initial ventilations.
When providing manual chest compressions:
1. Deliver compressions ‘in the centre of the chest’
2. Compress to a depth of at least 5 cm but not more than 6 cm
3. Compress the chest at a rate of 100–120 min−1 with as few interruptions
as possible
4. Allow the chest to recoil completely after each compression; do
not lean on the chest
Hand position
Experimental studies show better haemodynamic responses
when chest compressions are performed on the lower half of the
8 K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80
Fig. 1.4. Step by step sequence of actions for use by the BLS/AED trained provider to treat the adult cardiac arrest victim.
K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80 9
Fig. 1.4. (Continued )
10 K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80
Fig. 1.4. (Continued )
K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80 11
Fig. 1.4. (Continued )
sternum.70–72 It is recommended that this location be taught in a
simpliﬁed way, such as, “place the heel of your hand in the centre
of the chest with the other hand on top”. This instruction should be
accompanied by a demonstration of placing the hands on the lower
half of the sternum.73,74
Chest compressions are most easily delivered by a single CPR
provider kneeling by the side of the victim, as this facilitates
movement between compressions and ventilations with minimal
interruptions. Over-the-head CPR for single CPR providers and
straddle-CPR for two CPR providers may be considered when it is
not possible to perform compressions from the side, for example
when the victim is in a conﬁned space.75,76
Compression depth
Data from four recent observational studies suggest that a
compression depth range of 4.5–5.5 cm in adults leads to better
outcomes than all other compression depths during manual
CPR.77–80 One of these studies found that a compression depth of
46 mm was associated with the highest survival rate.79 The ERC,
therefore, endorses the ILCOR recommendation that it is reasonable
to aim for a chest compression depth of approximately 5 cm
but not more than 6 cm in the average sized adult.81 In line with
the ILCOR recommendation, the ERC decided to retain the 2010
guidance to compress the chest at least 5 cm but not more than
6 cm.
Compression rate
Two studies found higher survival among patients who received
chest compressions at a rate of 100–120 min−1. Very high chest
compression rates were associated with declining chest compression
depths.82,83 The ERC recommends, therefore, that chest
compressions should be performed at a rate of 100–120 min−1.
Minimising pauses in chest compressions
Pre- and post-shock pauses of less than 10 s, and chest compression
fractions >60% are associated with improved outcomes.84–88
Pauses in chest compressions should be minimised.
Firm surface
CPR should be performed on a ﬁrm surface whenever possible.
Air-ﬁlled mattresses should be routinely deﬂated during CPR.89
The evidence for the use of backboards is equivocal.90–94 If a backboard
is used, take care to avoid interrupting CPR and dislodging
intravenous lines or other tubes during board placement.
Chest wall recoil
Allowing complete recoil of the chest after each compression
results in better venous return to the chest and may improve the
effectiveness of CPR.95–98 CPR providers should, therefore, take care
to avoid leaning after each chest compression.
Duty cycle
There is very little evidence to recommend any speciﬁc duty
cycle and, therefore, insufﬁcient new evidence to prompt a change
from the currently recommended ratio of 50%.
Feedback on compression technique
None of the studies on feedback or prompt devices has demonstrated
improved survival to discharge with feedback.99 The use of
CPR feedback or prompt devices during CPR should only be considered
as part of a broader system of care that should include
comprehensive CPR quality improvement initiatives,99,100 rather
than as an isolated intervention.
12 K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80
Rescue breaths
We suggest that during adult CPR tidal volumes of approximately
500–600 ml (6–7 ml kg−1) are delivered. Practically, this
is the volume required to cause the chest to rise visibly.101 CPR
providers should aim for an inﬂation duration of about 1 s, with
enough volume to make the victim’s chest rise, but avoid rapid or
forceful breaths. The maximum interruption in chest compression
to give two breaths should not exceed 10 s.102
Compression–ventilation ratio
A ratio of 30:2 was recommended in ERC Guidelines 2010
for the single CPR provider attempting resuscitation of an adult.
Several observational studies have reported slightly improved
outcomes after implementation of the guideline changes, which
included switching from a compression ventilation ratio of 15:2 to
30:2.103–106 The ERC continues, therefore, to recommend a compression
to ventilation ratio of 30:2.
Compression-only CPR
Observational studies, classiﬁed mostly as very low-quality evidence,
have suggested equivalence of chest-compression-only CPR
and chest compressions combined with rescue breaths in adults
with a suspected cardiac cause for their cardiac arrest.27,107–118
Our conﬁdence in the equivalence between chest-compressiononly
and standard CPR is not sufﬁcient to change current practice.
The ERC, therefore, endorses the ILCOR recommendations that all
CPR providers should perform chest compressions for all patients
in cardiac arrest. CPR providers trained and able to perform rescue
breaths should perform chest compressions and rescue breaths
as this may provide additional beneﬁt for children and those who
sustain an asphyxial cardiac arrest111,119,120 or where the EMS
response interval is prolonged.115
Use of an automated external deﬁbrillator
AEDs are safe and effective when used by laypeople with minimal
or no training.121 AEDs make it possible to deﬁbrillate many
minutes before professional help arrives. CPR providers should continue
CPR with minimal interruption of chest compressions while
attaching an AED and during its use. CPR providers should concentrate
on following the voice prompts immediately when they
are spoken, in particular resuming CPR as soon as instructed, and
minimising interruptions in chest compression. Standard AEDs are
suitable for use in children older than 8 years.122–124 For children
between 1 and 8 years use paediatric pads, together with an attenuator
or a paediatric mode if available.
CPR before deﬁbrillation
Continue CPR while a deﬁbrillator or AED is being brought onsite
and applied, but deﬁbrillation should not be delayed any longer.
Interval between rhythm checks
Pause chest compressions every 2 min to assess the cardiac
rhythm.
Voice prompts
It is critically important that CPR providers pay attention to
AED voice prompts and follow them without any delay. Voice
prompts are usually programmable, and it is recommended that
they be set in accordance with the sequence of shocks and timings
for CPR given above. Devices measuring CPR quality may in addition
provide real-time CPR feedback and supplemental voice/visual
prompts.
In practice, AEDs are used mostly by trained rescuers, where
the default setting of AED prompts should be for a compression to
ventilation ratio of 30:2. If (in an exception) AEDs are placed in a
setting where such trained rescuers are unlikely to be available or
present, the owner or distributor may choose to change the settings
to compression only.
Public access deﬁbrillation (PAD) programmes
Placement of AEDs in areas where one cardiac arrest per 5 years
can be expected is considered cost-effective and comparable to
other medical interventions.125–127 Registration of AEDs for public
access, so that dispatchers can direct CPR providers to a nearby AED,
may also help to optimise response.128 The effectiveness of AED use
for victims at home is limited.129 The proportion of patients found
in VF is lower at home than in public places, however the absolute
number of potentially treatable patients is higher at home.129 Public
access deﬁbrillation (PAD) rarely reaches victims at home.130
Dispatched lay CPR providers, local to the victim and directed to a
nearby AED, may improve bystander CPR rates33 and help reduce
the time to deﬁbrillation.37
Universal AED signage
ILCOR has designed a simple and clear AED sign that may be
recognised worldwide and this is recommended to indicate the
location of an AED.131
In-hospital use of AEDs
There are no published randomised trials comparing in-hospital
use of AEDs with manual deﬁbrillators. Three observational studies
showed no improvements in survival to hospital discharge for inhospital
adult cardiac arrest when using an AED compared with
manual deﬁbrillation.132–134 Another large observational study
showed that in-hospital AED use was associated with a lower
survival-to-discharge rate compared with no AED use.135 This suggests
that AEDs may cause harmful delays in starting CPR, or
interruptions in chest compressions in patients with non-shockable
rhythms.136 We recommend the use of AEDs in those areas of the
hospital where there is a risk of delayed deﬁbrillation,137 because it
will take several minutes for a resuscitation team to arrive, and ﬁrst
responders do not have skills in manual deﬁbrillation. The goal is
to attempt deﬁbrillation within 3 min of collapse. In hospital areas
where there is rapid access to manual deﬁbrillation, either from
trained staff or a resuscitation team, manual deﬁbrillation should
be used in preference to an AED. Hospitals should monitor collapseto-ﬁrst
shock intervals and audit resuscitation outcomes.
Risks to the CPR provider and recipients of CPR
In victims who are eventually found not to be in cardiac
arrest, bystander CPR extremely rarely leads to serious harm. CPR
providers should not, therefore, be reluctant to initiate CPR because
of concern of causing harm.
Foreign body airway obstruction (choking)
Foreign body airway obstruction (FBAO) is an uncommon but
potentially treatable cause of accidental death.138 As victims initially
are conscious and responsive, there are often opportunities
for early interventions which can be life saving.
K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80 13
Recognition
FBAO usually occurs while the victim is eating or drinking.
Fig. 1.5 presents the treatment algorithm for the adult with FBAO.
Foreign bodies may cause either mild or severe obstruction. It is
important to ask the conscious victim “Are you choking?”. The victim
that is able to speak, cough and breathe has mild obstruction.
The victim that is unable to speak, has a weakening cough, is struggling
or unable to breathe, has severe airway obstruction.
Treatment for mild airway obstruction
Encourage the victim to cough as coughing generates high and
sustained airway pressures and may expel the foreign body.
Fig. 1.5. Step by step sequence of actions for the treatment of the adult victim with foreign body airway obstruction.
14 K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80
Fig. 1.5. (Continued )
Treatment for severe airway obstruction
For conscious adults and children over one year of age with complete
FBAO, case reports have demonstrated the effectiveness of
back blows or ‘slaps’, abdominal thrusts and chest thrusts.139 The
likelihood of success is increased when combinations of back blows
or slaps, and abdominal and chest thrusts are used.139
Treatment of foreign body airway obstruction in an unresponsive
victim
A randomised trial in cadavers140 and two prospective studies
in anaesthetised volunteers141,142 showed that higher airway
pressures can be generated using chest thrusts compared with
abdominal thrusts. Chest compressions should, therefore, be
started promptly if the victim becomes unresponsive or unconscious.
After 30 compressions attempt 2 rescue breaths, and
continue CPR until the victim recovers and starts to breathe nor-
mally.
Victims with a persistent cough, difﬁculty swallowing or the
sensation of an object being still stuck in the throat should be
referred for a medical opinion. Abdominal thrusts and chest compressions
can potentially cause serious internal injuries and all
victims successfully treated with these measures should be examined
afterwards for injury.
Resuscitation of children (see also section 6) and victims of
drowning (see also section 4)
Many children do not receive resuscitation because potential
CPR providers fear causing harm if they are not speciﬁcally trained
in resuscitation for children. This fear is unfounded: it is far better
to use the adult BLS sequence for resuscitation of a child than to
do nothing. For ease of teaching and retention, laypeople should
be taught that the adult sequence may also be used for children
who are not responsive and not breathing normally. The following
minor modiﬁcations to the adult sequence will make it even more
suitable for use in children:
• Give 5 initial rescue breaths before starting chest compressions
• Give CPR for 1 min before going for help in the unlikely event the
CPR provider is alone
• Compress the chest by at least one third of its depth; use 2 ﬁngers
for an infant under one year; use 1 or 2 hands for a child over 1
year as needed to achieve an adequate depth of compression
The same modiﬁcations of 5 initial breaths and 1 min of CPR by
the lone CPR provider before getting help, may improve outcome
for victims of drowning. This modiﬁcation should be taught only
to those who have a speciﬁc duty of care to potential drowning
victims (e.g. lifeguards).
Adult advanced life support
Guidelines for prevention of in-hospital cardiac arrest
Early recognition of the deteriorating patient and prevention of
cardiac arrest is the ﬁrst link in the chain of survival.13 Once cardiac
arrest occurs, only about 20% of patients who have an in-hospital
cardiac arrest will survive to go home.143,144 Hospitals should
provide a system of care that includes: (a) educating staff about the
signs of patient deterioration and the rationale for rapid response to
illness, (b) appropriate, and frequent monitoring of patients’ vital
signs, (c) clear guidance (e.g. via calling criteria or early warning
scores) to assist staff in the early detection of patient deterioration,
(d) a clear, uniform system of calling for assistance, and (e) an
appropriate and timely clinical response to calls for help.145
Prevention of sudden cardiac death (SCD) out-of-hospital
Most SCD victims have a history of cardiac disease and
warning signs, most commonly chest pain, in the hour before
cardiac arrest.146 Apparently healthy children and young adults
who suffer SCD can also have signs and symptoms (e.g.
syncope/pre-syncope, chest pain and palpitations) that should alert
healthcare professionals to seek expert help to prevent cardiac
arrest.147–151 Screening programmes for athletes vary between
countries.152,153 Identiﬁcation of individuals with inherited conditions
and screening of family members can help prevent deaths
in young people with inherited heart disorders.154–156
Prehospital resuscitation
CPR versus deﬁbrillation ﬁrst for out-of-hospital cardiac arrest
EMS personnel should provide high-quality CPR while a deﬁbrillator
is retrieved, applied and charged. Deﬁbrillation should not be
delayed longer than needed to establish the need for deﬁbrillation
and charging.
Termination of resuscitation rules
The ‘basic life support termination of resuscitation rule’ is predictive
of death when applied by deﬁbrillation-only emergency
medical technicians.157 The rule recommends termination when
there is no ROSC, no shocks are administered and EMS personnel
did not witness the arrest. Several studies have shown external
generalisability of this rule.158–164 More recent studies show that
EMS systems providing ALS interventions can also use this BLS rule
and therefore termed it the ‘universal’ termination of resuscitation
rule.159,165,166
In-hospital resuscitation
After in-hospital cardiac arrest, the division between BLS
and ALS is arbitrary; in practice, the resuscitation process is a
K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80 15
Collapsed / sick patient
Shout for HELP & assess patient
Signs of life?No Yes
Call resuscitation team
CPR 30:2
with oxygen and
airway adjuncts
Apply pads/monitor
Attempt deﬁbrillation
if appropriate
Advanced Life Support
when resuscitation
team arrives
Assess ABCDE
Recognise & treat
Oxygen, monitoring,
IV access
Call resuscitation team
if appropriate
Handover to
resuscitation team
In-hospital Resuscitation
Fig. 1.6. In-hospital resuscitation algorithm. ABCDE – Airway, Breathing Circulation, Disability, Exposure IV – intravenous; CPR – cardiopulmonary resuscitation.
continuum and is based on common sense. An algorithm for the
initial management of in-hospital cardiac arrest is shown in Fig. 1.6.
• Ensure personal safety.
• When healthcare professionals see a patient collapse or ﬁnd a
patient apparently unconscious in a clinical area, they should
ﬁrst summon help (e.g. emergency bell, shout), then assess if the
patient is responsive. Gently shake the shoulders and ask loudly:
‘Are you all right?’
• If other members of staff are nearby, it will be possible to undertake
actions simultaneously.
The responsive patient
Urgent medical assessment is required. Depending on the
local protocols, this may take the form of a resuscitation team
(e.g. Medical Emergency Team, Rapid Response Team). While
awaiting this team, give oxygen, attach monitoring and insert an
intravenous cannula.
The unresponsive patient
The exact sequence will depend on the training of staff and
experience in assessment of breathing and circulation. Trained
healthcare staff cannot assess the breathing and pulse sufﬁciently
reliably to conﬁrm cardiac arrest.39,40,42,44,167–172
Agonal breathing (occasional gasps, slow, laboured or noisy
breathing) is common in the early stages of cardiac arrest and is
a sign of cardiac arrest and should not be confused as a sign of
life.43,53,54,56 Agonal breathing can also occur during chest compressions
as cerebral perfusion improves, but is not indicative of
ROSC. Cardiac arrest can cause an initial short seizure-like episode
that can be confused with epilepsy46,47 Finally changes in skin
colour, notably pallor and bluish changes associated with cyanosis
are not diagnostic of cardiac arrest.46
16 K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80
• Shout for help (if not already)
Turn the victim on to his back and then open the airway:
• Open airway and check breathing:
◦ Open the airway using a head tilt chin lift
◦ Keeping the airway open, look, listen and feel for normal
breathing (an occasional gasp, slow, laboured or noisy breathing
is not normal):
• Look for chest movement
• Listen at the victim’s mouth for breath sounds
• Feel for air on your cheek
• Look, listen and feel for no more than 10 seconds to determine if
the victim is breathing normally.
• Check for signs of a circulation:
◦ It may be difﬁcult to be certain that there is no pulse. If the
patient has no signs of life (consciousness, purposeful movement,
normal breathing, or coughing), or if there is doubt, start
CPR immediately until more experienced help arrives or the
patient shows signs of life.
◦ Delivering chest compressions to a patient with a beating heart
is unlikely to cause harm.173 However, delays in diagnosing cardiac
arrest and starting CPR will adversely effect survival and
must be avoided.
◦ Only those experienced in ALS should try to assess the carotid
pulse whilst simultaneously looking for signs of life. This rapid
assessment should take no more than 10 s. Start CPR if there is
any doubt about the presence or absence of a pulse.
• If there are signs of life, urgent medical assessment is required.
Depending on the local protocols, this may take the form of a
resuscitation team. While awaiting this team, give the patient
oxygen, attach monitoring and insert an intravenous cannula.
When a reliable measurement of oxygen saturation of arterial
blood (e.g. pulse oximetry (SpO2)) can be achieved, titrate the
inspired oxygen concentration to achieve a SpO2 of 94–98%.
• If there is no breathing, but there is a pulse (respiratory arrest),
ventilate the patient’s lungs and check for a circulation every 10
breaths. Start CPR if there is any doubt about the presence or
absence of a pulse.
Starting in-hospital CPR
The key steps are listed here. Supporting evidence can be found
in the sections on speciﬁc interventions that follow.
• One person starts CPR as others call the resuscitation team
and collect the resuscitation equipment and a deﬁbrillator. If
only one member of staff is present, this will mean leaving the
patient.
• Give 30 chest compressions followed by 2 ventilations.
• Compress to a depth of at least 5 cm but no more than 6 cm.
• Chest compressions should be performed at a rate of
100–120 min−1.
• Allow the chest to recoil completely after each compression; do
not lean on the chest.
• Minimise interruptions and ensure high-quality compressions.
• Undertaking high-quality chest compressions for a prolonged
time is tiring; with minimal interruption, try to change the person
doing chest compressions every 2 min.
• Maintain the airway and ventilate the lungs with the most appropriate
equipment immediately to hand. Pocket mask ventilation
or two-rescuer bag-mask ventilation, which can be supplemented
with an oral airway, should be started. Alternatively, use
a supraglottic airway device (SGA) and self-inﬂating bag. Tracheal
intubation should be attempted only by those who are trained,
competent and experienced in this skill.
• Waveform capnography must be used for conﬁrming tracheal
tube placement and monitoring ventilation rate. Waveform
capnography can also be used with a bag-mask device and SGA.
The further use of waveform capnography to monitor CPR quality
and potentially identify ROSC during CPR is discussed later in this
section.174
• Use an inspiratory time of 1 s and give enough volume to produce
a normal chest rise. Add supplemental oxygen to give the highest
feasible inspired oxygen as soon as possible.175
• Once the patient’s trachea has been intubated or a SGA has been
inserted, continue uninterrupted chest compressions (except
for deﬁbrillation or pulse checks when indicated) at a rate of
100–120 min−1 and ventilate the lungs at approximately 10
breaths min−1. Avoid hyperventilation (both excessive rate and
tidal volume).
• If there is no airway and ventilation equipment available, consider
giving mouth-to-mouth ventilation. If there are clinical
reasons to avoid mouth-to-mouth contact, or you are unable to
do this, do chest compressions until help or airway equipment
arrives.
• When the deﬁbrillator arrives, apply self-adhesive deﬁbrillation
pads to the patient whilst chest compressions continue and then
brieﬂy analyse the rhythm. If self-adhesive deﬁbrillation pads
are not available, use paddles. Pause brieﬂy to assess the heart
rhythm. With a manual deﬁbrillator, if the rhythm is VF/pVT
charge the deﬁbrillator while another rescuer continues chest
compressions. Once the deﬁbrillator is charged, pause the chest
compressions and then give one shock, and immediately resume
chest compressions. Ensure no one is touching the patient during
shock delivery. Plan and ensure safe deﬁbrillation before the
planned pause in chest compressions.
• If using an automated external deﬁbrillator (AED) follow
the AED’s audio-visual prompts, and similarly aim to minimise
pauses in chest compressions by rapidly following
prompts.
• In some settings where self-adhesive deﬁbrillation pads are not
available, alternative deﬁbrillation strategies using paddles are
used to minimise the preshock pause.
• In some countries a deﬁbrillation strategy that involves charging
the deﬁbrillator towards the end of every 2 min cycle of CPR in
preparation for the pulse check is used.176,177 If the rhythm is
VF/pVT a shock is given and CPR resumed. Whether this leads to
any beneﬁt is unknown, but it does lead to deﬁbrillator charging
for non-shockable rhythms.
• Restart chest compressions immediately after the deﬁbrillation
attempt. Minimise interruptions to chest compressions. When
using a manual deﬁbrillator it is possible to reduce the pause
between stopping and restarting of chest compressions to less
than ﬁve seconds.
• Continue resuscitation until the resuscitation team arrives or the
patient shows signs of life. Follow the voice prompts if using an
AED.
• Once resuscitation is underway, and if there are sufﬁcient staff
present, prepare intravenous cannulae and drugs likely to be used
by the resuscitation team (e.g. adrenaline).
• Identify one person to be responsible for handover to the
resuscitation team leader. Use a structured communication
tool for handover (e.g. SBAR, RSVP).178,179 Locate the patient’s
records.
• The quality of chest compressions during in-hospital CPR is
frequently sub-optimal.180,181 The importance of uninterrupted
chest compressions cannot be over emphasised. Even short interruptions
to chest compressions are disastrous for outcome and
every effort must be made to ensure that continuous, effective
chest compression is maintained throughout the resuscitation
attempt. Chest compressions should commence at the beginning
of a resuscitation attempt and continue uninterrupted unless
they are paused brieﬂy for a speciﬁc intervention (e.g. rhythm
K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80 17
check). Most interventions can be performed without interruptions
to chest compressions. The team leader should monitor the
quality of CPR and alternate CPR providers if the quality of CPR is
poor.
• Continuous EtCO2 monitoring during CPR can be used to indicate
the quality of CPR, and a rise in EtCO2 can be an indicator of ROSC
during chest compressions.174,182–184
• If possible, the person providing chest compressions should be
changed every 2 min, but without pauses in chest compressions.
ALS treatment algorithm
Although the ALS cardiac arrest algorithm (Fig. 1.7) is applicable
to all cardiac arrests, additional interventions may be indicated for
cardiac arrest caused by special circumstances (see Section 4).3
The interventions that unquestionably contribute to improved
survival after cardiac arrest are prompt and effective bystander
basic life support (BLS), uninterrupted, high-quality chest compressions
and early deﬁbrillation for VF/pVT. The use of adrenaline
has been shown to increase ROSC but not survival to discharge.
Furthermore there is a possibility that it causes worse longterm
neurological survival. Similarly, the evidence to support
the use of advanced airway interventions during ALS remains
limited.175,185–192 Thus, although drugs and advanced airways are
still included among ALS interventions, they are of secondary
importance to early deﬁbrillation and high-quality, uninterrupted
chest compressions.
As with previous guidelines, the ALS algorithm distinguishes
between shockable and non-shockable rhythms. Each cycle is
broadly similar, with a total of 2 min of CPR being given before
assessing the rhythm and where indicated, feeling for a pulse.
Adrenaline 1 mg is injected every 3–5 min until ROSC is achieved
– the timing of the initial dose of adrenaline is described below.
In VF/pVT, a single dose of amiodarone 300 mg is indicated after a
total of three shocks and a further dose of 150 mg can be considered
after ﬁve shocks. The optimal CPR cycle time is not known and
algorithms for longer cycles (3 min) exist which include different
timings for adrenaline doses.193
Shockable rhythms (ventricular ﬁbrillation/pulseless ventricular
tachycardia)
Having conﬁrmed cardiac arrest, summon help (including the
request for a deﬁbrillator) and start CPR, beginning with chest
compressions, with a compression: ventilation (CV) ratio of 30:2.
When the deﬁbrillator arrives, continue chest compressions while
applying the deﬁbrillation electrodes. Identify the rhythm and treat
according to the ALS algorithm.
• If VF/pVT is conﬁrmed, charge the deﬁbrillator while another
rescuer continues chest compressions. Once the deﬁbrillator is
charged, pause the chest compressions, quickly ensure that all
rescuers are clear of the patient and then give one shock.
• Deﬁbrillation shock energy levels are unchanged from the 2010
guidelines.194 For biphasic waveforms, use an initial shock energy
of at least 150 J. With manual deﬁbrillators it is appropriate to
consider escalating the shock energy if feasible, after a failed
shock and for patients where reﬁbrillation occurs.195,196
• Minimise the delay between stopping chest compressions and
delivery of the shock (the preshock pause); even a 5–10 s delay
will reduce the chances of the shock being successful.84,85,197,198
• Without pausing to reassess the rhythm or feel for a pulse, resume
CPR (CV ratio 30:2) immediately after the shock, starting with
chest compressions to limit the post-shock pause and the total
peri-shock pause.84,85
• Continue CPR for 2 min, then pause brieﬂy to assess the rhythm;
if still VF/pVT, give a second shock (150–360 J biphasic). Without
pausing to reassess the rhythm or feel for a pulse, resume CPR
(CV ratio 30:2) immediately after the shock, starting with chest
compressions.
• Continue CPR for 2 min, then pause brieﬂy to assess the rhythm;
if still VF/pVT, give a third shock (150–360 J biphasic). Without
reassessing the rhythm or feeling for a pulse, resume CPR (CV
ratio 30:2) immediately after the shock, starting with chest com-
pressions.
• If IV/IO access has been obtained, during the next 2 min of CPR
give adrenaline 1 mg and amiodarone 300 mg.199
• The use of waveform capnography may enable ROSC to be
detected without pausing chest compressions and may be used
as a way of avoiding a bolus injection of adrenaline after ROSC has
been achieved. Several human studies have shown that there is a
signiﬁcant increase in EtCO2 when ROSC occurs.174,182–184,200,201
If ROSC is suspected during CPR withhold adrenaline. Give
adrenaline if cardiac arrest is conﬁrmed at the next rhythm check.
• If ROSC has not been achieved with this 3rd shock, the adrenaline
may improve myocardial blood ﬂow and increase the chance of
successful deﬁbrillation with the next shock.
• Timing of adrenaline dosing can cause confusion amongst
ALS providers and this aspect needs to be emphasised during
training.202 Training should emphasise that giving drugs must
not lead to interruptions in CPR and delay interventions such as
deﬁbrillation. Human data suggests drugs can be given without
affecting the quality of CPR.186
• After each 2-min cycle of CPR, if the rhythm changes to asystole
or PEA, see ‘non-shockable rhythms’ below. If a non-shockable
rhythm is present and the rhythm is organised (complexes appear
regular or narrow), try to feel a pulse. Ensure that rhythm checks
are brief, and pulse checks are undertaken only if an organised
rhythm is observed. If there is any doubt about the presence
of a pulse in the presence of an organised rhythm, immediately
resume CPR. If ROSC has been achieved, begin post-resuscitation
care.
During treatment of VF/pVT, healthcare providers must practice
efﬁcient coordination between CPR and shock delivery whether
using a manual deﬁbrillator or an AED. Reduction in the peri-shock
pause (the interval between stopping compressions to resuming
compressions after shock delivery) by even a few seconds
can increase the probability of shock success.84,85,197,198 Highquality
CPR may improve the amplitude and frequency of the VF
and improve the chance of successful deﬁbrillation to a perfusing
rhythm.203–205
Regardless of the arrest rhythm, after the initial adrenaline dose
has been given, give further doses of adrenaline 1 mg every 3–5 min
until ROSC is achieved; in practice, this will be about once every two
cycles of the algorithm. If signs of life return during CPR (purposeful
movement, normal breathing or coughing), or there is an increase in
EtCO2, check the monitor; if an organised rhythm is present, check
for a pulse. If a pulse is palpable, start post-resuscitation care. If no
pulse is present, continue CPR.
Witnessed, monitored VF/pVT. If a patient has a monitored and witnessed
cardiac arrest in the catheter laboratory, coronary care unit,
a critical care area or whilst monitored after cardiac surgery, and a
manual deﬁbrillator is rapidly available:
• Conﬁrm cardiac arrest and shout for help.
• If the initial rhythm is VF/pVT, give up to three quick successive
(stacked) shocks.
• Rapidly check for a rhythm change and, if appropriate, ROSC after
each deﬁbrillation attempt.
• Start chest compressions and continue CPR for 2 min if the third
shock is unsuccessful.
18 K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80
Fig. 1.7. Advanced Life Support algorithm. CPR – cardiopulmonary resuscitation; VF/Pulseless VT – ventricular ﬁbrillation/pulseless ventricular tachycardia; PEA – pulseless
electrical activity; ABCDE – Airway, Breathing Circulation, Disability, Exposure; SaO2 – oxygen saturation; PaCO2 – partial pressure carbon dioxide in arterial blood; ECG –
electrocardiogram.
K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80 19
This three-shock strategy may also be considered for an initial,
witnessed VF/pVT cardiac arrest if the patient is already connected
to a manual deﬁbrillator. Although there are no data supporting a
three-shock strategy in any of these circumstances, it is unlikely
that chest compressions will improve the already very high chance
of ROSC when deﬁbrillation occurs early in the electrical phase,
immediately after onset of VF.
Airway and ventilation. During the treatment of persistent VF,
ensure good-quality chest compressions between deﬁbrillation
attempts. Consider reversible causes (4 Hs and 4 Ts) and, if identiﬁed,
correct them. Tracheal intubation provides the most reliable
airway, but should be attempted only if the healthcare provider is
properly trained and has regular, ongoing experience with the technique.
Tracheal intubation must not delay deﬁbrillation attempts.
Personnel skilled in advanced airway management should attempt
laryngoscopy and intubation without stopping chest compressions;
a brief pause in chest compressions may be required as the tube
is passed through the vocal cords, but this pause should be less
than 5 s. Alternatively, to avoid any interruptions in chest compressions,
the intubation attempt may be deferred until ROSC. No RCTs
have shown that tracheal intubation increases survival after cardiac
arrest. After intubation, conﬁrm correct tube position and secure it
adequately. Ventilate the lungs at 10 breaths min−1; do not hyperventilate
the patient. Once the patient’s trachea has been intubated,
continue chest compressions, at a rate of 100–120 min−1 without
pausing during ventilation.
In the absence of personnel skilled in tracheal intubation,
a supraglottic airway (SGA) (e.g. laryngeal mask airway, laryngeal
tube or i-gel) is an acceptable alternative. Once a SGA has
been inserted, attempt to deliver continuous chest compressions,
uninterrupted by ventilation.206 If excessive gas leakage causes
inadequate ventilation of the patient’s lungs, chest compressions
will have to be interrupted to enable ventilation (using a CV ratio
of 30:2).
Intravenous access and drugs. Establish intravenous access if this
has not already been achieved. Peripheral venous cannulation is
quicker, easier to perform and safer than central venous cannulation.
Drugs injected peripherally must be followed by a ﬂush of
at least 20 ml of ﬂuid and elevation of the extremity for 10–20 s
to facilitate drug delivery to the central circulation. If intravenous
access is difﬁcult or impossible, consider the IO route. This is
now established as an effective route in adults.207–210 Intraosseous
injection of drugs achieves adequate plasma concentrations in a
time comparable with injection through a vein.211,212
Non-shockable rhythms (PEA and asystole)
Pulseless electrical activity (PEA) is deﬁned as cardiac arrest
in the presence of electrical activity (other than ventricular tachyarrhythmia)
that would normally be associated with a palpable
pulse.213 Survival following cardiac arrest with asystole or PEA is
unlikely unless a reversible cause can be found and treated effec-
tively.
If the initial monitored rhythm is PEA or asystole, start CPR
30:2. If asystole is displayed, without stopping CPR, check that
the leads are attached correctly. Once an advanced airway has
been sited, continue chest compressions without pausing during
ventilation. After 2 min of CPR, recheck the rhythm. If asystole
is present, resume CPR immediately. If an organised rhythm is
present, attempt to palpate a pulse. If no pulse is present (or if there
is any doubt about the presence of a pulse), continue CPR.
Give adrenaline 1 mg as soon as venous or intraosseous access
is achieved, and repeat every alternate CPR cycle (i.e. about every
3–5 min). If a pulse is present, begin post-resuscitation care. If
signs of life return during CPR, check the rhythm and check for
a pulse. If ROSC is suspected during CPR withhold adrenaline and
continue CPR. Give adrenaline if cardiac arrest is conﬁrmed at the
next rhythm check.
Whenever a diagnosis of asystole is made, check the ECG carefully
for the presence of P waves, because this may respond to
cardiac pacing. There is no beneﬁt in attempting to pace true asystole.
In addition, if there is doubt about whether the rhythm is
asystole or extremely ﬁne VF, do not attempt deﬁbrillation; instead,
continue chest compressions and ventilation. Continuing highquality
CPR however may improve the amplitude and frequency
of the VF and improve the chance of successful deﬁbrillation to a
perfusing rhythm.203–205
The optimal CPR time between rhythm checks may vary according
to the cardiac arrest rhythm and whether it is the ﬁrst or
subsequent loop.214 Based on expert consensus, for the treatment
of asystole or PEA, following a 2-min cycle of CPR, if the rhythm has
changed to VF, follow the algorithm for shockable rhythms. Otherwise,
continue CPR and give adrenaline every 3–5 min following
the failure to detect a palpable pulse with the pulse check. If VF
is identiﬁed on the monitor midway through a 2-min cycle of CPR,
complete the cycle of CPR before formal rhythm and shock delivery
if appropriate – this strategy will minimise interruptions in chest
compressions.
Potentially reversible causes
Potential causes or aggravating factors for which speciﬁc treatment
exists must be considered during any cardiac arrest. For
ease of memory, these are divided into two groups of four,
based upon their initial letter: either H or T. More details on
many of these conditions are covered in Section 4 (Special
Circumstances).3
Use of ultrasound imaging during advanced life support. Several studies
have examined the use of ultrasound during cardiac arrest
to detect potentially reversible causes.215–217 Although no studies
have shown that use of this imaging modality improves
outcome, there is no doubt that echocardiography has the potential
to detect reversible causes of cardiac arrest. The integration
of ultrasound into advanced life support requires considerable
training if interruptions to chest compressions are to be
minimised.
Monitoring during advanced life support
There are several methods and emerging technologies to
monitor the patient during CPR and potentially help guide ALS
interventions. These include:
• Clinical signs such as breathing efforts, movements and eye opening
can occur during CPR. These can indicate ROSC and require
veriﬁcation by a rhythm and pulse check, but can also occur
because CPR can generate a sufﬁcient circulation to restore signs
of life including consciousness.218
• The use of CPR feedback or prompt devices during CPR is
addressed in Section 2 Basic Life Support.1 The use of CPR feedback
or prompt devices during CPR should only be considered as
part of a broader system of care that should include comprehensive
CPR quality improvement initiatives. 99,219
• Pulse checks when there is an ECG rhythm compatible with
an output can be used to identify ROSC, but may not detect
pulses in those with low cardiac output states and a low blood
pressure.220 The value of attempting to feel arterial pulses during
chest compressions to assess the effectiveness of chest compressions
is unclear. There are no valves in the inferior vena
cava and retrograde blood ﬂow into the venous system can produce
femoral vein pulsations.221 Carotid pulsation during CPR
20 K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80
does not necessarily indicate adequate myocardial or cerebral
perfusion.
• Monitoring the heart rhythm through pads, paddles or ECG
electrodes is a standard part of ALS. Motion artefacts prevent
reliable heart rhythm assessment during chest compressions
forcing rescuers to stop chest compressions to assess the
rhythm, and preventing early recognition of recurrent VF/pVT.
Some modern deﬁbrillators have ﬁlters that remove artefacts
from compressions but there are no human studies showing
improvements in patient outcomes from their use. We suggest
against the routine use of artefact-ﬁltering algorithms for analysis
of ECG rhythm during CPR unless as part of a research
programme.18
• The use of waveform capnography during CPR has a greater
emphasis in Guidelines 2015 and is addressed in more detail
below.
• Blood sampling and analysis during CPR can be used to identify
potentially reversible causes of cardiac arrest. Avoid ﬁnger
prick samples in critical illness because they may not be reliable;
instead, use samples from veins or arteries.
• Blood gas values are difﬁcult to interpret during CPR. During cardiac
arrest, arterial gas values may be misleading and bear little
relationship to the tissue acid–base state.222 Analysis of central
venous blood may provide a better estimation of tissue pH. Central
venous oxygen saturation monitoring during ALS is feasible
but its role in guiding CPR is not clear.
• Invasive arterial pressure monitoring will enable the detection
of low blood pressure values when ROSC is achieved. Consider
aiming for an aortic diastolic pressure of greater than
25 mmHg during CPR by optimising chest compressions.223
In practice this would mean measuring an arterial diastolic
pressure. Although haemodynamic-directed CPR showed some
beneﬁt in experimental studies 224–227 there is currently no
evidence of improvement in survival with this approach in
humans.175
• Ultrasound assessment is addressed above to identify and treat
reversible causes of cardiac arrest, and identify low cardiac output
states (‘pseudo-PEA’). Its use has been discussed above.
• Cerebral oximetry using near-infrared spectroscopy measures
regional cerebral oxygen saturation (rSO2) non-invasively.228–230
This remains an emerging technology that is feasible during CPR.
Its role in guiding CPR interventions including prognostication
during and after CPR is yet to be established.231
Waveform capnography during advanced life support. Waveform
capnography enables continuous real-time EtCO2 to be monitored
during CPR. During CPR, EtCO2 values are low, reﬂecting
the low cardiac output generated by chest compression. There is
currently no evidence that use of waveform capnography during
CPR improves patient outcomes, although the prevention of
unrecognised oesophageal intubation is clearly beneﬁcial. The role
of waveform capnography during CPR includes:
• Ensuring tracheal tube placement in the trachea (see below for
further details).
• Monitoring ventilation rate during CPR and avoiding hyperven-
tilation.
• Monitoring the quality of chest compressions during CPR. EtCO2
values are associated with compression depth and ventilation
rate and a greater depth of chest compression will increase the
value.232 Whether this can be used to guide care and improve
outcome requires further study.174
• Identifying ROSC during CPR. An increase in EtCO2 during CPR
may indicate ROSC and prevent unnecessary and potentially
harmful dosing of adrenaline in a patient with ROSC.174,182,200,201
If ROSC is suspected during CPR withhold adrenaline. Give
adrenaline if cardiac arrest is conﬁrmed at the next rhythm check.
• Prognostication during CPR. Lower EtCO2 values may indicate a
poor prognosis and less chance of ROSC;175 however, we recommend
that a speciﬁc EtCO2 value at any time during CPR should
not be used alone to stop CPR efforts. End-tidal CO2 values should
be considered only as part of a multi-modal approach to decisionmaking
for prognostication during CPR.
Extracorporeal Cardiopulmonary Resuscitation (eCPR)
Extracorporeal CPR (eCPR) should be considered as a rescue
therapy for those patients in whom initial ALS measures are unsuccessful
and, or to facilitate speciﬁc interventions (e.g. coronary
angiography and percutaneous coronary intervention (PCI) or pulmonary
thrombectomy for massive pulmonary embolism).233,234
There is an urgent need for randomised studies of eCPR and large
eCPR registries to identify the circumstances in which it works best,
establish guidelines for its use and identify the beneﬁts, costs and
risks of eCPR.235,236
Deﬁbrillation
The deﬁbrillation strategy for the ERC Guidelines 2015 has
changed little from the former guidelines:
• The importance of early, uninterrupted chest compressions
remains emphasised throughout these guidelines, together with
minimising the duration of pre-shock and post-shock pauses.
• Continue chest compressions during deﬁbrillator charging,
deliver deﬁbrillation with an interruption in chest compressions
of no more than 5 s and immediately resume chest compressions
following deﬁbrillation.
• Self-adhesive deﬁbrillation pads have a number of advantages
over manual paddles and should always be used in preference
when they are available.
• CPR should be continued while a deﬁbrillator or automated external
deﬁbrillator (AED) is retrieved and applied, but deﬁbrillation
should not be delayed longer than needed to establish the need
for deﬁbrillation and charging.
• The use of up to three-stacked shocks may be considered
if initial VF/pVT occurs during a witnessed, monitored arrest
with a deﬁbrillator immediately available, e.g. cardiac catheteri-
sation.
• Deﬁbrillation shock energy levels are unchanged from the 2010
guidelines.194 For biphasic waveforms deliver the ﬁrst shock
with an energy of at least 150 J, the second and subsequent
shocks at 150–360 J. The shock energy for a particular deﬁbrillator
should be based on the manufacturer’s guidance. It
is appropriate to consider escalating the shock energy if feasible,
after a failed shock and for patients where reﬁbrillation
occurs.195,196
Strategies for minimising the pre-shock pause
The delay between stopping chest compressions and delivery of
the shock (the pre-shock pause) must be kept to an absolute minimum;
even 5–10 s delay will reduce the chances of the shock being
successful.84,85,87,197,198,237 The pre-shock pause can be reduced to
less than 5 s by continuing compressions during charging of the
deﬁbrillator and by having an efﬁcient team coordinated by a leader
who communicates effectively.176,238 The safety check to avoid rescuer
contact with the patient at the moment of deﬁbrillation should
be undertaken rapidly but efﬁciently. The post-shock pause is minimised
by resuming chest compressions immediately after shock
delivery (see below). The entire process of manual deﬁbrillation
K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80 21
should be achievable with less than a 5 second interruption to chest
compressions.
Airway management and ventilation
The optimal strategy for managing the airway has yet to be
determined. Several observational studies have challenged the
premise that advanced airway interventions (tracheal intubation
or supraglottic airways) improve outcomes.239 The ILCOR ALS
Task Force has suggested using either an advanced airway (tracheal
intubation or supraglottic airway (SGA)) or a bag-mask for
airway management during CPR.175 This very broad recommendation
is made because of the total absence of high quality data
to indicate which airway strategy is best. In practice a combination
of airway techniques will be used stepwise during a
resuscitation attempt.240 The best airway, or combination of airway
techniques will vary according to patient factors, the phase of
the resuscitation attempt (during CPR, after ROSC), and the skills of
rescuers.192
Conﬁrmation of correct placement of the tracheal tube
Unrecognised oesophageal intubation is the most serious complication
of attempted tracheal intubation. Routine use of primary
and secondary techniques to conﬁrm correct placement of the
tracheal tube should reduce this risk. The ILCOR ALS Task Force
recommends using waveform capnography to conﬁrm and continuously
monitor the position of a tracheal tube during CPR
in addition to clinical assessment (strong recommendation, low
quality evidence). Waveform capnography is given a strong recommendation
as it may have other potential uses during CPR (e.g.
monitoring ventilation rate, assessing quality of CPR). The ILCOR
ALS Task Force recommends that if waveform capnography is not
available, a non-waveform carbon dioxide detector, oesophageal
detector device or ultrasound in addition to clinical assessment is
an alternative.
Drugs and ﬂuids for cardiac arrest
Vasopressors
Despite the continued widespread use of adrenaline and the use
of vasopressin during resuscitation in some countries, there is no
placebo-controlled study that shows that the routine use of any
vasopressor during human cardiac arrest increases survival to hospital
discharge, although improved short-term survival has been
documented.186,187,189
Our current recommendation is to continue the use of
adrenaline during CPR as for Guidelines 2010. We have considered
the beneﬁt in short-term outcomes (ROSC and admission to
hospital) and our uncertainty about the beneﬁt or harm on survival
to discharge and neurological outcome given the limitations of
the observational studies.175,241,242 We have decided not to change
current practice until there is high-quality data on long-term out-
comes.
A series of randomised controlled trials243–247 demonstrated no
difference in outcomes (ROSC, survival to discharge, or neurological
outcome) with vasopressin versus adrenaline as a ﬁrst line vasopressor
in cardiac arrest. Other studies comparing adrenaline alone
or in combination with vasopressin also demonstrated no difference
in ROSC, survival to discharge or neurological outcome.248–250
We suggest vasopressin should not be used in cardiac arrest instead
of adrenaline. Those healthcare professionals working in systems
that already use vasopressin may continue to do so because there
is no evidence of harm from using vasopressin when compared to
adrenaline.175
Anti-arrhythmics
As with vasopressors, the evidence that anti-arrhythmic drugs
are of beneﬁt in cardiac arrest is limited. No anti-arrhythmic drug
given during human cardiac arrest has been shown to increase survival
to hospital discharge, although amiodarone has been shown
to increase survival to hospital admission.251,252 Despite the lack
of human long-term outcome data, the balance of evidence is in
favour of the use anti-arrhythmic drugs for the management of
arrhythmias in cardiac arrest. Following three initial shocks, amiodarone
in shock-refractory VF improves the short-term outcome
of survival to hospital admission compared with placebo251 or
lidocaine.252 Amiodarone also appears to improve the response to
deﬁbrillation when given to humans or animals with VF or haemodynamically
unstable ventricular tachycardia.253–257 There is no
evidence to indicate the optimal time at which amiodarone should
be given when using a single-shock strategy. In the clinical studies
to date, the amiodarone was given if VF/pVT persisted after at least
three shocks. For this reason, and in the absence of any other data,
amiodarone 300 mg is recommended if VF/pVT persists after three
shocks.
Lidocaine is recommended for use during ALS when amiodarone
is unavailable.252 Do not use magnesium routinely for the treatment
of cardiac arrest.
Other drug therapy
Do not give sodium bicarbonate routinely during cardiac arrest
and CPR or after ROSC. Consider sodium bicarbonate for lifethreatening
hyperkalaemia, for cardiac arrest associated with
hyperkalaemia and for tricyclic overdose.
Fibrinolytic therapy should not be used routinely in cardiac
arrest. Consider ﬁbrinolytic therapy when cardiac arrest is caused
by proven or suspected acute pulmonary embolism. Following ﬁbrinolysis
during CPR for acute pulmonary embolism, survival and
good neurological outcome have been reported in cases requiring
in excess of 60 min of CPR. If a ﬁbrinolytic drug is given in these circumstances,
consider performing CPR for at least 60–90 min before
termination of resuscitation attempts.258–260 Ongoing CPR is not a
contraindication to ﬁbrinolysis.
Intravenous ﬂuids
Hypovolaemia is a potentially reversible cause of cardiac arrest.
Infuse ﬂuids rapidly if hypovolaemia is suspected. In the initial
stages of resuscitation there are no clear advantages to using colloid,
so use balanced crystalloid solutions such as Hartmann’s
solution or 0.9% sodium chloride. Avoid dextrose, which is redistributed
away from the intravascular space rapidly and causes
hyperglycaemia, and may worsen neurological outcome after cardiac
arrest.261
CPR techniques and devices
Although manual chest compressions are often performed very
poorly,262–264 no adjunct has consistently been shown to be superior
to conventional manual CPR.
Mechanical chest compression devices
Since Guidelines 2010 there have been three large RCTs
enrolling 7582 patients that have shown no clear advantage
from the routine use of automated mechanical chest compression
devices for OHCA.36,265,266 We suggest that automated mechanical
chest compression devices are not used routinely to replace manual
chest compressions. We suggest that automated mechanical chest
compression devices are a reasonable alternative to high-quality
manual chest compressions in situations where sustained highquality
manual chest compressions are impractical or compromise
provider safety, such as CPR in a moving ambulance, prolonged CPR
22 K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80
(e.g. hypothermic arrest), and CPR during certain procedures (e.g.
coronary angiography or preparation for extracorporeal CPR.175
Interruptions to CPR during device deployment should be avoided.
Healthcare personnel who use mechanical CPR should do so only
within a structured, monitored programme, which should include
comprehensive competency-based training and regular opportunities
to refresh skills.
Impedance threshold device (ITD)
An RCT of the ITD with standard CPR compared to standard CPR
alone with 8718 OHCA patients failed to show any beneﬁt with ITD
use in terms of survival and neurological outcome.267 We therefore
recommend that the ITD is not used routinely with standard
CPR. Two RCTs did not show a beneﬁt in terms of survival to
hospital discharge of the ITD with active compression decompression
CPR when compared with active compression decompression
CPR alone.268,269 Results of a large trial of a combination of ITD
with active compression decompression CPR (ACD CPR) compared
to standard CPR were reported in two publications.270,271 There
was no difference for survival to discharge and neurologically
favourable survival at 12 months, and after consideration of the
number needed to treat a decision was made not to recommend
the routine use of the ITD and ACD.175
Peri-arrest arrhythmias
The correct identiﬁcation and treatment of arrhythmias in the
critically ill patient may prevent cardiac arrest from occurring or
reoccurring after successful initial resuscitation. The initial assessment
and treatment of a patient with an arrhythmia should follow
the ABCDE approach. The assessment and treatment of all arrhythmias
addresses two factors: the condition of the patient (stable
versus unstable), and the nature of the arrhythmia. Anti-arrhythmic
drugs are slower in onset and less reliable than electrical cardioversion
in converting a tachycardia to sinus rhythm; thus, drugs tend
to be reserved for stable patients without adverse signs, and electrical
cardioversion is usually the preferred treatment for the unstable
patient displaying adverse signs. Algorithms for the treatment of
tachycardia and bradycardia are unchanged from 2010 and are
show in Figs. 1.8 and 1.9.
The presence or absence of adverse signs or symptoms will dictate
the appropriate treatment for most arrhythmias. The following
adverse factors indicate a patient who is unstable because of the
arrhythmia.
1. Shock – this is seen as pallor, sweating, cold and clammy extremities
(increased sympathetic activity), impaired consciousness
(reduced cerebral blood ﬂow), and hypotension (e.g. systolic
blood pressure <90 mmHg).
2. Syncope – loss of consciousness, which occurs as a consequence
of reduced cerebral blood ﬂow
3. Heart failure – arrhythmias compromise myocardial performance
by reducing coronary artery blood ﬂow. In acute
situations this is manifested by pulmonary oedema (failure of the
left ventricle) and/or raised jugular venous pressure, and hepatic
engorgement (failure of the right ventricle).
4. Myocardial ischaemia – this occurs when myocardial oxygen
consumption exceeds delivery. Myocardial ischaemia may
present with chest pain (angina) or may occur without pain
as an isolated ﬁnding on the 12 lead ECG (silent ischaemia).
The presence of myocardial ischaemia is especially important
if there is underlying coronary artery disease or structural heart
disease because it may cause further life-threatening complications
including cardiac arrest.
Having determined the rhythm and the presence or absence of
adverse signs, the options for immediate treatment are categorised
as:
• Electrical (cardioversion, pacing).
• Pharmacological (anti-arrhythmic (and other) drugs).
Cardiac arrest in special circumstances
Special causes
Hypoxia
Cardiac arrest caused by hypoxaemia is usually a consequence
of asphyxia, which accounts for most of the non-cardiac causes of
cardiac arrest. Survival after cardiac arrest from asphyxia is rare and
most survivors sustain severe neurological injury. Those who are
unconscious but have not progressed to a cardiac arrest are much
more likely to make a good neurological recovery.272,273
Hypo-/hyperkalaemia and other electrolyte disorders
Electrolyte abnormalities can cause cardiac arrhythmias or
cardiac arrest. Life-threatening arrhythmias are associated most
commonly with potassium disorders, particularly hyperkalaemia.
Hypothermia (accidental)
Accidental hypothermia is deﬁned as an involuntary drop of
the body core temperature <35 ◦C. Cooling of the human body
decreases cellular oxygen consumption by about 6% per 1 ◦C
decrease in core temperature.274 At 18 ◦C the brain can tolerate
cardiac arrest for up to 10 times longer than at 37 ◦C. This
results in hypothermia exerting a protective effect on the brain
and heart,275 and intact neurological recovery may be possible even
after prolonged cardiac arrest if deep hypothermia develops before
asphyxia. If an ECLS centre is not available, rewarming may be
attempted in hospital using a combination of external and internal
rewarming techniques (e.g. forced warm air, warm infusions,
forced peritoneal lavage).276
Hyperthermia
Hyperthermia occurs when the body’s ability to thermoregulate
fails and core temperature exceeds that normally maintained by
homeostatic mechanisms.
Hyperthermia is a continuum of heat-related conditions, starting
with heat stress, progressing to heat exhaustion, heat stroke
and ﬁnally multiple organ dysfunction and cardiac arrest.277 The
mainstay of treatment is supportive therapy and rapidly cooling
the patient.278–280 Start cooling in the prehospital setting if
possible. Aim to rapidly reduce the core temperature to approximately
39 ◦C. If cardiac arrest occurs, follow standard guidelines
and continue cooling the patient. Use the same cooling techniques
as for targeted temperature management after cardiac
arrest
Hypovolaemia
Hypovolaemia is a potentially treatable cause of cardiac arrest
that usually results from a reduced intravascular volume (i.e. haemorrhage),
but relative hypovolaemia may also occur in patients
with severe vasodilation (e.g. anaphylaxis, sepsis).
Depending on the suspected cause, initiate volume therapy with
warmed blood products and/or crystalloids, in order to rapidly
restore intravascular volume. At the same time, initiate immediate
intervention to control haemorrhage, e.g. surgery, endoscopy,
endovascular techniques,281 or treat the primary cause (e.g. anaphylactic
shock).
K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80 23
Fig. 1.8. Tachycardia algorithm. ABCDE – Airway, Breathing Circulation, Disability, Exposure; IV – intravenous; SpO2 – oxygen saturation measured by pulse oximetry; BP –
blood pressure; ECG – electrocardiogram; DC – direct current; AF – atrial ﬁbrillation; VT – ventricular tachycardia; SVT – supraventricular tachycardia; PSVT – paroxysmal
supraventricular tachycardia.
Anaphylaxis. Anaphylaxis is a severe, life-threatening, generalised
or systemic hypersensitivity reaction. This is characterised by
rapidly developing life-threatening airway and/or breathing and/or
circulation problems usually associated with skin and mucosal
changes.282–285 Adrenaline is the most important drug for the
treatment of anaphylaxis.286,287 The treatment algorithm for anaphylaxis,
including the correct doses for adrenaline, is shown
in Fig. 1.10. Adrenaline is most effective when given early after
the onset of the reaction,288 and adverse effects are extremely
rare with correct IM doses. Repeat the IM adrenaline dose if
there is no improvement in the patient’s condition within 5 min.
IV adrenaline should only be used by those experienced in
the use and titration of vasopressors in their normal clinical
practice.
Traumatic cardiac arrest. Traumatic cardiac arrest (TCA) carries a
very high mortality, but in those where ROSC can be achieved,
neurological outcome in survivors appears to be much better
than in other causes of cardiac arrest.289,290 It is vital that a
medical cardiac arrest is not misdiagnosed as a TCA as it must
be treated with the universal ALS algorithm. In cardiac arrest
caused by hypovolaemia, cardiac tamponade or tension pneumothorax,
chest compressions are unlikely to be as effective as in
normovolaemic cardiac arrest.291,292 For this reason, chest compressions
take a lower priority than the immediate treatment
of reversible causes, e.g. thoracotomy, controlling haemorrhage
etc. (Fig. 1.11)
Tension pneumothorax
The incidence of tension pneumothorax is approximately 5% in
major trauma patients treated in the prehospital setting (13% of
24 K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80
Fig. 1.9. Bradycardia algorithm. ABCDE – Airway, Breathing Circulation, Disability,
Exposure; IV – intravenous; SpO2 – oxygen saturation measured by pulse oximetry;
BP – blood pressure; ECG – electrocardiogram; AV – atrioventricular.
those developing TCA).293–295 Needle chest decompression is rapid
and within the skill set of most ambulance personnel but is of
limited value.296,297 Simple thoracostomy is easy to perform and
used routinely by several prehospital physician services.298,299 This
consists of the ﬁrst stage of standard chest tube insertion – a simple
incision and rapid dissection into the pleural space in the positive
pressure ventilated patient
Tamponade (cardiac)
The mortality after cardiac tamponade is high and immediate
decompression of the pericardium is required to give any chance of
survival. If thoracotomy is not possible, consider ultrasound-guided
pericardiocentesis to treat cardiac arrest associated with suspected
traumatic or non-traumatic cardiac tamponade. Non-image guided
pericardiocentesis is an alternative, only if ultrasound is not avail-
able.
Thrombosis
Pulmonary embolism. Cardiac arrest from acute pulmonary
embolism is the most serious clinical presentation of venous
thromboembolism.300 The reported incidence of cardiac arrest
caused by pulmonary embolism is 2–9% of all OHCAs,183,301–303
and 5–6% of all in-hospital cardiac arrests.304,305 Diagnosis of acute
pulmonary embolism during cardiac arrest is difﬁcult. Clinical
history and assessment, capnography and echocardiography
(if available) can all assist in the diagnosis of acute pulmonary
embolism during CPR with varying degrees of speciﬁcity and
sensitivity. Consider administration of ﬁbrinolytic therapy when
acute pulmonary embolism is a known or suspected cause of cardiac
arrest. Ongoing CPR is not a contraindication to ﬁbrinolysis.
The potential beneﬁt of ﬁbrinolysis in terms of improved survival
outweighs potential risks in a location where no alternative exists,
e.g. in the prehospital setting.258 Once a ﬁbrinolytic drug is administered,
continue CPR for at least 60–90 min before terminating
resuscitation attempts.258,259
Coronary thrombosis. Although proper diagnosis of the cause of cardiac
arrest may be difﬁcult in a patient already in cardiac arrest,
if the initial rhythm is VF it is most likely that the cause is coronary
artery disease with an occluded large coronary vessel. In
these cases, transport with ongoing CPR and immediate access to
the catheterisation laboratory may be considered if a prehospital
and in-hospital infrastructure is available with teams experienced
in mechanical haemodynamic support and primary percutaneous
coronary intervention (PPCI) with ongoing CPR. A decision to transport
with ongoing CPR should take into consideration a realistic
chance of survival (e.g. witnessed cardiac arrest with initial shockable
rhythm (VF/pVT) and bystander CPR). Intermittent ROSC also
strongly favours a decision to transport.306
Toxins
Overall, poisoning rarely causes cardiac arrest or death.307 There
are few speciﬁc therapeutic measures for poisoning that improve
outcomes: decontamination, enhancing elimination, and the use
of speciﬁc antidotes.308–310 The preferred method of gastrointestinal
decontamination in patients with an intact or protected airway
is activated charcoal. It is most effective if given within 1 h of
ingestion.311
Special environments
Perioperative cardiac arrest
The commonest cause of anaesthesia-related cardiac arrest
involves airway management.312,313 Cardiac arrest caused by
bleeding had the highest mortality in non-cardiac surgery, with
only 10.3% of these patients surviving to hospital discharge.314
Patients in the operating room are normally fully monitored and, as
such, there should be little or no delay in diagnosing cardiac arrest.
Cardiac arrest following cardiac surgery
Cardiac arrest following major cardiac surgery is relatively
common in the immediate post-operative phase, with a reported
incidence of 0.7–8%.315,316 Emergency resternotomy is an integral
part of resuscitation after cardiac surgery, once all other reversible
causes have been excluded. Once adequate airway and ventilation
has been established, and if three attempts at deﬁbrillation have
failed in VF/pVT, undertake resternotomy without delay. Emergency
resternotomy is also indicated in asystole or PEA, when other
K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80 25
Fig. 1.10. Anaphylaxis treatment algorithm.282
Reproduced with permission from Elsevier Ireland Ltd.
26 K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80
Fig. 1.11. Traumatic cardiac arrest algorithm.
treatments have failed, and should be performed within 5 min of
the cardiac arrest by anyone with appropriate training.
Cardiac arrest in a cardiac catheterisation laboratory
Cardiac arrest (commonly VF) may occur during percutaneous
coronary intervention (PCI) for ST-elevation myocardial infarction
(STEMI) or non-STEMI, but it may also be a complication of angiography.
In this special setting with immediate response to monitored
VF, deﬁbrillation without preceding chest compressions is recommended.
If needed for failed deﬁbrillation or immediately recurring
VF, immediate deﬁbrillation may be repeated up to two times. If
VF persists after the initial three shocks or ROSC not immediately
established with certainty, chest compressions and ventilations
must be initiated without further delay and a cause for the unresolved
problem sought with further coronary angiography. On an
angiography table with the image intensiﬁer above the patient,
delivering chest compressions with adequate depth and rate is
almost impossible and exposes the rescuers to dangerous radiation.
Therefore, early transition to the use of a mechanical chest
compression device is strongly recommended.317,318 If the problem
is not rapidly resolved, very low quality evidence suggests that
the use of extracorporeal life support (ECLS) can be considered as
K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80 27
Fig. 1.12. Drowning chain of survival.337
Reproduced with permission from Elsevier Ireland Ltd.
a rescue strategy if the infrastructure is available, and probably to
be preferred over intra-aortic balloon pump (IABP).319
Cardiac arrest in a dialysis unit
Sudden cardiac death is the most common cause of death
in haemodialysis patients and is usually preceded by ventricular
arrhythmias.320 Hyperkalaemia contributes to 2–5% of deaths
amongst haemodialysis patients 321 A shockable rhythm (VF/pVT)
is more common in patients undergoing haemodialysis. 320,322,323
Most haemodialysis machine manufacturers recommend disconnection
from the dialysis equipment prior to deﬁbrillation.324
Cardiac arrest in transportation vehicles
In-ﬂight emergencies aboard airplanes. Cardiac arrest on board has
an incidence of 1 per 5–10 million passenger ﬂights. An initial
shockable rhythm is present in 25–31% patients,325–328 and the
in-ﬂight use of an AED can result in 33–50% survival to hospital
discharge.325,328,329
Cardiac arrest in HEMS and air ambulances. Air ambulance services
operate either a helicopter emergency medical service (HEMS) or
ﬁxed-wing air ambulances that routinely transport critically ill
patients. Cardiac arrest may occur in ﬂight, both in patients being
transported from an accident site and also critically ill patients
being transported between hospital.330,331
If a shockable rhythm (VF/pVT) is recognised in a monitored
patient and deﬁbrillation can be accomplished rapidly, immediately
give up to three-stacked shocks before starting chest
compressions. Mechanical chest compression devices enable delivery
of high quality chest compressions in the conﬁned space of an
air ambulance and their use should be considered.332,333 If a cardiac
arrest during ﬂight is thought to be a possibility, consider ﬁtting
the patient within a mechanical chest compression device during
packaging before ﬂight.334,335
Cardiac arrest during sports activities
The sudden and unexpected collapse, not associated with contact
or trauma, of an athlete on the ﬁeld of play is probably cardiac
in origin and requires rapid recognition and effective treatment if
the victim is to survive. If there is no immediate response to treatment
and there is an organised medical team, consider moving
the patient to an area shielded from media and spectators. If the
patient is in VF/pVT, delay moving them until after the ﬁrst three
deﬁbrillation attempts (deﬁbrillation is most likely to be successful
in the ﬁrst three shocks).
Water rescue and drowning
Drowning is a common cause of accidental death.336 The Drowning
Chain of Survival 337 describes ﬁve critical links for improving
survival from drowning (Fig. 1.12).
Bystanders play a critical role in initial attempts at rescue and
resuscitation.338–340 ILCOR reviewed speciﬁc prognostic indicators
and noted that submersion durations of less than 10 min were
associated with a very high chance of favourable outcome.18 Age,
emergency medical services (EMS) response time, fresh or salt
water, water temperature, and witness status were not useful for
predicting survival. Submersion in ice-cold water may prolong
the window of survival and justify extended search and rescue
activities.341–343 The BLS sequence in drowning (Fig. 1.13) reﬂects
the critical importance of rapid alleviation of hypoxia.
Wilderness and environmental emergencies
Difﬁcult terrain and remote areas. Compared to urban areas some
terrains will be more difﬁcult to access and are remote from organised
medical care. The chances of a good outcome from cardiac
arrest may be reduced due to delayed access and prolonged trans-
port.
Whenever possible, transport the patient with air rescue.344,345
The organisation of the helicopter emergency medical service
(HEMS) affects the outcome.346–348
High altitude illness. Given the increasing popularity of travel
at altitude, an increasing number of tourists at altitude have
Attach AED and
follow instructions
Give 5 rescue breaths / ventilations
supplemented with oxygen if possible
Signs of life?
Start CPR 30:2
Open airway
Shout for help
and call emergency services
Unresponsive and
not breathing normally?
Fig. 1.13. Drowning treatment algorithm for rescuers with a duty to respond.
28 K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80
cardiovascular and metabolic risk factors for cardiac arrest. Resuscitation
at high altitude does not differ from standard CPR. With
the lower pO2, CPR is more exhausting for the rescuer than at
sea level, and the average number of effective chest compressions
may decrease within the ﬁrst minute.349–351 Use mechanical
chest compression devices whenever possible. In situations where
transport is not possible, and correction of reversible causes is
not possible, further resuscitation is futile and CPR should be
terminated.
Avalanche burial. In Europe and North America together, there
are about 150 snow avalanche deaths each year. Fatalities are
mainly due to asphyxia, sometimes associated with trauma and
hypothermia. Prognostic factors are severity of injury, duration
of complete burial, airway patency, core temperature and serum
potassium.352 The cut-off criteria for prolonged CPR and extracorporeal
rewarming of avalanche victims in cardiac arrest have
become more stringent to reduce the number of futile cases
treated with extracorporeal life support (ECLS). An algorithm for
the management of the buried avalanche victim is shown in
Fig. 1.14.
Lightning strike and electrical injuries. Electrical injury is a relatively
infrequent but potentially devastating multisystem injury
with high morbidity and mortality, causing 0.54 deaths per 100,000
people each year. Ensure that any power source is switched
off and do not approach the casualty until it is safe. Electrocution
from lightning strikes is rare, but worldwide it causes 1000
deaths each year.353 Unconscious patients with linear or punctuate
burns (feathering) should be treated as victims of lightning
strike.354 Severe burns (thermal or electrical), myocardial necrosis,
the extent of central nervous system injury, and secondary
multisystem organ failure determine the morbidity and long-term
prognosis.
Mass casualty incidents
Use a triage system to prioritise treatment. The decision to use a
mass casualty incident (MCI) triage sieve, and withhold CPR to those
with imminent death, (including victims without signs of life), is
the responsibility of a medical commander who is usually the most
experienced EMS clinician on scene. Training allows fast and correct
recognition of those needing life-saving procedures, and reduces
the risk of inappropriate care given to futile cases.
Special patients
Cardiac arrest associated with concomitant diseases
Asthma. The majority of asthma-related deaths occur before
admission to hospital.355
Cardiac arrest in a person with asthma is often a terminal event
after a period of hypoxaemia. Modiﬁcations to standard ALS guidelines
include considering the need for early tracheal intubation. If
dynamic hyperinﬂation of the lungs is suspected during CPR, compression
of the chest while disconnecting tracheal tube may relieve
air trapping.
Patients with ventricular assist devices. Conﬁrming cardiac arrest in
these patients may be difﬁcult. A patient with invasive monitoring
should be considered to have arrested if the arterial line reads the
same as the central venous pressure (CVP) line. In patients without
invasive monitoring, if the patient has no signs of life and is
not breathing, then they should be considered to have suffered a
cardiac arrest. Patients with an implantable left ventricular assist
device (LVAD) should have the same algorithm followed as the
algorithm for arrest after cardiac surgery. In pulseless electrical
activity (PEA), turn the pacing off and verify there is no underlying
VF, which must be treated by deﬁbrillation. External chest compressions
should be performed if immediate resuscitative efforts
fail. Importantly, the airway and breathing checks should always
be performed. It is possible for a patient to have asystole or VF,
but still have adequate cerebral blood ﬂow due to adequate and
continued pump ﬂow. If the patient is conscious and responding
then you will have more time in which to resolve this arrhythmia
and external chest compressions will not be needed. Resternotomy
should be performed in an established cardiac arrest within 10 days
of surgery.
Cardiac arrest associated with neurological disease. Cardiac arrest
associated with acute neurological disease is relatively uncommon
and can occur with subarachnoid haemorrhage, intracerebral haemorrhage,
epileptic seizures, and ischaemic stroke.356 Cardiac or
respiratory arrest occurs in between 3 and 11% of patents with
subarachnoid haemorrhage,357 and the initial rhythm is usually
non-shockable. However, patients with subarachnoid haemorrhage
may have ECG changes that suggest an acute coronary
syndrome.358 Individuals with neurological prodromal symptoms
who achieve ROSC may be considered for CT brain scan.
Whether this is done before or after coronary angiography will
depend on clinical judgement with consideration of the likelihood
of a subarachnoid haemorrhage versus an acute coronary
syndrome.4
Obesity. In 2014, more than 1.9 billion (39%) adults were overweight,
and of these over 600 million (13%) were obese. Traditional
cardiovascular risk factors (hypertension, diabetes, lipid proﬁle,
prevalent coronary heart disease, heart failure, and left ventricular
hypertrophy) are common in obese patients. Obesity is
associated with increased risk of sudden cardiac death.359 No
changes to the sequence of actions are recommended in resuscitation
of obese patients, but delivery of effective CPR may be
challenging.
Cardiac arrest associated with pregnancy
From 20 weeks’ gestation, the uterus can compress both the
inferior vena cava (IVC) and aorta, impeding venous return and cardiac
output. The hand position for chest compressions may need to
be slightly higher on the sternum for patients with advanced pregnancy
e.g. third trimester.360 Manually displace the uterus to the
left to reduce IVC compression. Add left lateral tilt if this is feasible
and ensure the chest remains supported on a ﬁrm surface (e.g. in the
operating room). Consider the need for an emergency hysterotomy
or Caesarean section as soon as a pregnant woman goes into cardiac
arrest. The best survival rate for infants over 24–25 weeks’ gestation
occurs when delivery of the infant is achieved within 5 min
after the mother’s cardiac arrest.361
Elderly people
More than 50% of people resuscitated from OHCA are aged 65
years or older.362 No modiﬁcations of standard resuscitation protocols
are needed when managing aged patients in cardiac arrest.
Rescuers, however, should be aware that the risk of both sternal and
rib fractures is higher in elderly.363–365 The incidence of CPR-related
injuries increases with duration of CPR.365
Post-resuscitation care
Successful return of spontaneous circulation (ROSC) is the ﬁrst
step towards the goal of complete recovery from cardiac arrest.
The complex pathophysiological processes that occur following
whole body ischaemia during cardiac arrest and the subsequent
reperfusion response during CPR and following successful resuscitation
have been termed the post-cardiac arrest syndrome.366
K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80 29
Fig. 1.14. Avalanche accident algorithm.
30 K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80
Fig. 1.15. Post resuscitation care algorithm. SBP – systolic blood pressure; PCI – percutaneous coronary intervention; CTPA – computed tomography pulmonary angiogram;
ICU – intensive care unit; MAP – mean arterial pressure; ScvO2 – central venous oxygenation; CO/CI – cardiac output/cardiac index; EEG – electroencephalography; ICD –
implanted cardioverter deﬁbrillator.
K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80 31
Depending on the cause of the arrest, and the severity of the
post-cardiac arrest syndrome, many patients will require multiple
organ support and the treatment they receive during this
post-resuscitation period inﬂuences signiﬁcantly the overall outcome
and particularly the quality of neurological recovery.367–373
The post-resuscitation care algorithm (Fig. 1.15) outlines some
of the key interventions required to optimise outcome for these
patients.
Post-cardiac arrest syndrome
The post-cardiac arrest syndrome comprises post-cardiac arrest
brain injury, post-cardiac arrest myocardial dysfunction, the
systemic ischaemia/reperfusion response, and the persistent precipitating
pathology.366,374,375 The severity of this syndrome will
vary with the duration and cause of cardiac arrest. It may not
occur at all if the cardiac arrest is brief. Cardiovascular failure
accounts for most deaths in the ﬁrst three days, while brain
injury accounts for most of the later deaths.376–378 Withdrawal
of life sustaining therapy (WLST) is the most frequent cause of
death (approximately 50%) in patients with a prognosticated bad
outcome,378,379 emphasising the importance of the prognostication
plan (see below). Post-cardiac arrest brain injury may be
exacerbated by microcirculatory failure, impaired autoregulation,
hypotension, hypercarbia, hypoxaemia, hyperoxaemia, pyrexia,
hypoglycaemia, hyperglycaemia and seizures. Signiﬁcant myocardial
dysfunction is common after cardiac arrest but typically starts
to recover by 2–3 days, although full recovery may take significantly
longer.380–382 The whole body ischaemia/reperfusion of
cardiac arrest activates immune and coagulation pathways contributing
to multiple organ failure and increasing the risk of
infection.383 Thus, the post-cardiac arrest syndrome has many
features in common with sepsis, including intravascular volume
depletion, vasodilation, endothelial injury and abnormalties of the
microcirculation.384–390
Airway and breathing
Hypoxaemia and hypercarbia both increase the likelihood of a
further cardiac arrest and may contribute to secondary brain injury.
Several animal studies indicate that hyperoxaemia early after ROSC
causes oxidative stress and harms post-ischaemic neurones.391
Virtually all human data is derived from intensive care unit registries
and they have produced conﬂicting results on the potential
impact of hyperoxaemia after resuscitation from cardiac arrest.392
A recent study of air versus supplemental oxygen in ST-elevation
myocardial infarction showed that supplemental oxygen therapy
increased myocardial injury, recurrent myocardial infarction and
major cardiac arrhythmia and was associated with larger infarct
size at 6 months.393 Given the evidence of harm after myocardial
infarction and the possibility of increased neurological injury after
cardiac arrest, as soon as arterial blood oxygen saturation can be
monitored reliably (by blood gas analysis and/or pulse oximetry),
titrate the inspired oxygen concentration to maintain the arterial
blood oxygen saturation in the range of 94–98%. Avoid hypoxaemia,
which is also harmful – ensure reliable measurement of
arterial oxygen saturation before reducing the inspired oxygen
concentration.
Consider tracheal intubation, sedation and controlled ventilation
in any patient with obtunded cerebral function. After cardiac
arrest, hypocapnia induced by hyperventilation causes cerebral
ischaemia.394–396 Observational studies using cardiac arrest registries
document an association between hypocapnia and poor
neurological outcome.397,398 Until prospective data are available,
it is reasonable to adjust ventilation to achieve normocarbia and
to monitor this using the end-tidal CO2 and arterial blood gas
values.
Circulation
Acute coronary syndrome (ACS) is a frequent cause of outof-hospital
cardiac arrest (OHCA): in a recent meta-analysis, the
prevalence of an acute coronary artery lesion ranged from 59% to
71% in OHCA patients without an obvious non-cardiac aetiology.399
Many observational studies have shown that emergent cardiac
catheterisation laboratory evaluation, including early percutaneous
coronary intervention (PCI), is feasible in patients with ROSC
after cardiac arrest.400,401 The invasive management (i.e. early coronary
angiography followed by immediate PCI if necessary) of these
patients, particularly those having prolonged resuscitation and
nonspeciﬁc ECG changes, has been controversial because of the lack
of speciﬁc evidence and signiﬁcant implications on use of resources
(including transfer of patients to PCI centres).
Percutaneous coronary intervention following ROSC with
ST-Elevation
Based on available data, emergent cardiac catheterisation laboratory
evaluation (and immediate PCI if required) should be
performed in adult patients with ROSC after OHCA of suspected
cardiac origin with STE on the ECG. This recommendation is
based on low quality of evidence from selected populations.
Observational studies also indicate that optimal outcomes after
OHCA are achieved with a combination of TTM and PCI, which
can be included in a standardised post–cardiac arrest protocol
as part of an overall strategy to improve neurologically intact
survival.401–403
Percutaneous coronary intervention following ROSC without
ST-Elevation
In contrast to the usual presentation of ACS in non-cardiac arrest
patients, the standard tools to assess coronary ischaemia in cardiac
arrest patients are less accurate. The sensitivity and speciﬁcity
of the usual clinical data, ECG and biomarkers to predict an acute
coronary artery occlusion as the cause of OHCA are unclear.404–407
Several large observational series showed that absence of STE
may also be associated with ACS in patients with ROSC following
OHCA.408–411 In these non-STE patients, there are conﬂicting data
from observational studies on the potential beneﬁt of emergent
cardiac catheterization laboratory evaluation.410,412,413 It is reasonable
to discuss and consider emergent cardiac catheterisation
laboratory evaluation after ROSC in patients with the highest risk
of a coronary cause for their cardiac arrest. Factors such as patient
age, duration of CPR, haemodynamic instability, presenting cardiac
rhythm, neurological status upon hospital arrival, and perceived
likelihood of cardiac aetiology can inﬂuence the decision to
undertake the intervention in the acute phase or to delay it until
later on in the hospital stay.
Indications and timing of computed tomography (CT) scanning
Cardiac causes of OHCA have been extensively studied in the last
few decades; conversely, little is known about non-cardiac causes.
Early identiﬁcation of a respiratory or neurological cause would
enable transfer of the patient to a specialised ICU for optimal care.
Improvedknowledgeof prognosisalsoenablesdiscussionaboutthe
appropriateness of speciﬁc therapies, including TTM. Early identiﬁcation
of a respiratory or neurological cause can be achieved by
performing a brain and chest CT-scan at hospital admission, before
or after coronary angiography. In the absence of signs or symptoms
suggesting a neurological or respiratory cause (e.g. headache,
seizures or neurological deﬁcits for neurological causes, shortness
of breath or documented hypoxia in patients suffering from
32 K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80
a known and worsening respiratpry disease) or if there is clinical
or ECG evidence of myocardial ischaemia, coronary angiography is
undertaken ﬁrst, followed by CT scan in the absence of causative
lesions. Several case series showed that this strategy enables diagnosis
of non-cardiac causes of arrest in a substantial proportion of
patients.358,414
Haemodynamic management
Post-resuscitation myocardial dysfunction causes
haemodynamic instability, which manifests as hypotension,
low cardiac index and arrhythmias.380,415 Perform early echocardiography
in all patients in order to detect and quantify the degree
of myocardial dysfunction.381,416 Post-resuscitation myocardial
dysfunction often requires inotropic support, at least transiently.
Treatment may be guided by blood pressure, heart rate, urine
output, rate of plasma lactate clearance, and central venous oxygen
saturation. Serial echocardiography may also be used, especially in
haemodynamically unstable patients. In the ICU an arterial line for
continuous blood pressure monitoring is essential.
Similarly to the early goal-directed therapy that is recommended
in the treatment of sepsis, 417 although challenged by
several recent studies,418–420 a bundle of therapies, including a
speciﬁc blood pressure target, has been proposed as a treatment
strategy after cardiac arrest.370 In the absence of deﬁnitive data,
target the mean arterial blood pressure to achieve an adequate
urine output (1 ml kg−1 h−1) and normal or decreasing plasma lactate
values, taking into consideration the patient’s normal blood
pressure, the cause of the arrest and the severity of any myocardial
dysfunction.366 These targets may vary depending on individual
physiology and co-morbid status. Importantly, hypothermia may
increase urine output421 and impair lactate clearance.415
Implantable cardioverter deﬁbrillators
Consider insertion of an implantable cardioverter deﬁbrillator
(ICD) in ischaemic patients with signiﬁcant left ventricular dysfunction,
who have been resuscitated from a ventricular arrhythmia that
occurred later than 24–48 h after a primary coronary event.422–424
Disability (optimising neurological recovery)
Cerebral perfusion
Animal studies show that immediately after ROSC there is a
short period of multifocal cerebral no-reﬂow followed by transient
global cerebral hyperaemia lasting 15–30 min.425–427 This is followed
by up to 24 h of cerebral hypoperfusion while the cerebral
metabolic rate of oxygen gradually recovers. After asphyxial cardiac
arrest, brain oedema may occur transiently after ROSC but it
is rarely associated with clinically relevant increases in intracranial
pressure.428,429 In many patients, autoregulation of cerebral
blood ﬂow is impaired (absent or right-shifted) for some time after
cardiac arrest, which means that cerebral perfusion varies with
cerebral perfusion pressure instead of being linked to neuronal
activity.430,431 Thus, after ROSC, maintain mean arterial pressure
near the patient’s normal level.12
Sedation
Although it has been common practice to sedate and ventilate
patients for at least 24 h after ROSC, there are no high-level data to
support a deﬁned period of ventilation, sedation and neuromuscular
blockade after cardiac arrest.
Control of seizures
Seizures are common after cardiac arrest and occur in approximately
one-third of patients who remain comatose after ROSC.
Myoclonus is most common and occurs in 18–25%, the remainder
having focal or generalised tonic–clonic seizures or a combination
of seizure types.376,432–434 Clinical seizures, including myoclonus
may or may not be of epileptic origin. Other motor manifestations
could be mistaken for seizures and there are several types of
myoclonus, the majority being non-epileptic.435,436 Use intermittent
electroencephalography (EEG) to detect epileptic activity in
patients with clinical seizure manifestations. Consider continuous
EEG to monitor patients with a diagnosed status epilepticus and
effects of treatment. Seizures may increase the cerebral metabolic
rate437 and have the potential to exacerbate brain injury caused
by cardiac arrest: treat with sodium valproate, levetiracetam,
phenytoin, benzodiazepines, propofol, or a barbiturate. Myoclonus
can be particularly difﬁcult to treat; phenytoin is often ineffective.
Propofol is effective to suppress post-anoxic myoclonus.438 Clonazepam,
sodium valproate and levetiracetam are antimyoclonic
drugs that may be effective in post-anoxic myoclonus.436
Glucose control
There is a strong association between high blood glucose
after resuscitation from cardiac arrest and poor neurological
outcome.261,439,440 Based on the available data, following ROSC
maintain the blood glucose at ≤10 mmol l−1 (180 mg dl−1) and
avoid hypoglycaemia.441 Do not implement strict glucose control
in adult patients with ROSC after cardiac arrest because it increases
the risk of hypoglycaemia.
Temperature control
A period of hyperthermia (hyperpyrexia) is common in the
ﬁrst 48 h after cardiac arrest.261,442–445 Several studies document
an association between post-cardiac arrest pyrexia and poor
outcomes.261,442,444–447 Although the effect of elevated temperature
on outcome is not proven, it seems reasonable to treat
hyperthermia occurring after cardiac arrest with antipyretics and
to consider active cooling in unconscious patients.
Animal and human data indicate that mild induced hypothermia
is neuroprotective and improves outcome after a period of global
cerebral hypoxia-ischaemia.448,449 All studies of post-cardiac arrest
mild induced hypothermia have included only patients in coma.
One randomised trial and a pseudo-randomised trial demonstrated
improved neurological outcome at hospital discharge or
at 6 months in comatose patients after out-of-hospital VF cardiac
arrest.450,451 Cooling was initiated within minutes to hours after
ROSC and a temperature range of 32–34 ◦C was maintained for
12–24 h.
In the Targeted Temperature Management (TTM) trial, 950 allrhythm
OHCA patients were randomised to 36 h of temperature
control (comprising 28 h at the target temperature followed by slow
rewarm) at either 33 ◦C or 36 ◦C.376 Strict protocols were followed
for assessing prognosis and for withdrawal of life-sustaining treatment
(WLST). There was no difference in the primary outcome –
all cause mortality, and neurological outcome at 6 months was also
similar (hazard ratio (HR) for mortality at end of trial 1.06, 95% CI
0.89–1.28; relative risk (RR) for death or poor neurological outcome
at 6 months 1.02, 95% CI 0.88–1.16). Detailed neurological outcome
at 6 months was also similar.452,453 Importantly, patients in both
arms of this trial had their temperature well controlled so that fever
was prevented in both groups.
The term targeted temperature management or temperature
control is now preferred over the previous term therapeutic
hypothermia. The ALS Task Force of the International Liaison Committee
on Resuscitation made several treatment recommendations
on targeted temperature management175 and these are reﬂected in
these ERC guidelines:
• Maintain a constant, target temperature between 32 ◦C and 36 ◦C
for those patients in whom temperature control is used (strong
recommendation, moderate-quality evidence).
K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80 33
• Whether certain subpopulations of cardiac arrest patients may
beneﬁt from lower (32–34 ◦C) or higher (36 ◦C) temperatures
remains unknown, and further research may help elucidate this.
• TTM is recommended for adults after OHCA with an initial
shockable rhythm who remain unresponsive after ROSC (strong
recommendation, low-quality evidence).
• TTM is suggested for adults after OHCA with an initial nonshockable
rhythm who remain unresponsive after ROSC (weak
recommendation, very low-quality evidence).
• TTM is suggested for adults after IHCA with any initial rhythm
who remain unresponsive after ROSC (weak recommendation,
very low-quality evidence).
• If targeted temperature management is used, it is suggested that
the duration is at least 24 h (as undertaken in the two largest
previous RCTs376,450) (weak recommendation, very low-quality
evidence).
When to control temperature?. Whichever target temperature is
selected, active temperature control is required to achieve and
maintain the temperature in this range. Prior recommendations
suggest that cooling should be initiated as soon as possible after
ROSC, but this recommendation was based only on preclinical data
and rational conjecture.454 Animal data indicate that earlier cooling
after ROSC produces better outcomes.455,456 Observational studies
are confounded by the fact that there is an association between
patients who cool faster spontaneously and worse neurological
outcome.457–459 It is hypothesised that those with the most severe
neurological injury are more prone to losing their ability to control
body temperature.
A randomised trial of prehospital cooling using a rapid infusion
of large volumes of cold intravenous ﬂuid immediately after ROSC
versus cooling delayed until hospital admission showed increased
rates of re-arrest during transport and pulmonary oedema.460
Although uncontrolled prehospital infusion of cold ﬂuid is not recommended,
it may still be reasonable to infuse cold intravenous
ﬂuid where patients are well monitored and a lower target temperature
(e.g. 33 ◦C) is the goal. Early cooling strategies, other than
rapid infusion of large volumes of cold intravenous ﬂuid, and cooling
during cardiopulmonary resuscitation in the prehospital setting
have not been studied adequately.
How to control temperature?. As yet, there are no data indicating
that any speciﬁc cooling technique increases survival when compared
with any other cooling technique; however, internal devices
enable more precise temperature control compared with external
techniques.461,462 Rebound hyperthermia is associated with worse
neurological outcome.463,464 Thus, rewarming should be achieved
slowly: the optimal rate is not known, but the consensus is currently
about 0.25–0.5 ◦C of rewarming per hour.465
Prognostication
This section on prognostication has been adapted from the Advisory
Statement on Neurological Prognostication in comatose survivors
of cardiac arrest,466 written by members of the ERC ALS Working Group
and of the Trauma and Emergency Medicine (TEM) Section of the European
Society of Intensive Care Medicine (ESICM), in anticipation of the
2015 Guidelines.
Hypoxic-ischaemic brain injury is common after resuscitation
from cardiac arrest.467 Two thirds of those dying after admission
to ICU following out-of-hospital cardiac arrest die from neurological
injury; this has been shown both before468 and after376–378
the implementation of target temperature management (TTM) for
post-resuscitation care. Most of these deaths are due to active
withdrawal of life sustaining treatment (WLST) based on prognostication
of a poor neurological outcome.377,378 For this reason,
when dealing with patients who are comatose after resuscitation
from cardiac arrest minimising the risk of a falsely pessimistic
prediction is essential. Ideally, when predicting a poor outcome
the false positive rate (FPR) should be zero with the narrowest
possible conﬁdence interval (CI). However, most prognostication
studies include so few patients that even if the FPR is 0%, the upper
limit of the 95% CI is often high.469,470 Moreover, many studies are
confounded by self-fulﬁlling prophecy, which is a bias occurring
when the treating physicians are not blinded to the results of the
outcome predictor and use it to make a decision on WLST.469,471
Finally, both TTM itself and sedatives or neuromuscular blocking
drugs used to maintain it may potentially interfere with prognostication
indices, especially those based on clinical examination.472
A multimodal approach to prognostication is essential and
includes: clinical examination, electrophysiology, biomarkers and
imaging.
A careful clinical neurological examination remains the foundation
for prognostication of the comatose patient after cardiac
arrest.473 Perform a thorough clinical examination daily to detect
signs of neurological recovery such as purposeful movements or to
identify a clinical picture suggesting that brain death has occurred.
The process of brain recovery following global post-anoxic
injury is completed within 72 h from arrest in most patients.474,475
However, in patients who have received sedatives ≤12 h before the
72 h post-ROSC neurological assessment, the reliability of clinical
examination may be reduced.472 Before decisive assessment is performed,
major confounders must be excluded;476,477 apart from
sedation and neuromuscular blockade, these include hypothermia,
severe hypotension, hypoglycaemia, and metabolic and respiratory
derangements. Suspend sedatives and neuromuscular blocking
drugs for long enough to avoid interference with clinical examination.
Short-acting drugs are preferred whenever possible. When
residual sedation/paralysis is suspected, consider using antidotes
to reverse the effects of these drugs.
The prognostication strategy algorithm (Fig. 1.16) is applicable
to all patients who remain comatose with an absent or extensor
motor response to pain at ≥72 h from ROSC. Results of earlier prognostic
tests are also considered at this time point.
Evaluate the most robust predictors ﬁrst. These predictors have
the highest speciﬁcity and precision (FPR <5% with 95% CIs <5%
in patients treated with controlled temperature) and have been
documented in several studies from at least three different groups
of investigators. They include bilaterally absent pupillary reﬂexes
at ≥72 h from ROSC and bilaterally absent somatosensory evoked
potential (SSEP) N20 wave after rewarming (this last sign can be
evaluated at ≥24 h from ROSC in patients who have not been treated
with controlled temperature). Based on expert opinion, we suggest
combining the absence of pupillary reﬂexes with those of corneal
reﬂexes for predicting poor outcome at this time point. Ocular
reﬂexes and SSEPs maintain their predictive value irrespective of
target temperature.478,479
If none of the signs above is present to predict a poor outcome,
a group of less accurate predictors can be evaluated, but the degree
of conﬁdence in their prediction will be lower. These have FPR < 5%
but wider 95% CIs than the previous predictors, and/or their definition/threshold
is inconsistent in prognostication studies. These
predictors include the presence of early status myoclonus (within
48 h from ROSC), high values of serum neuron speciﬁc enolase (NSE)
at 48–72 h after ROSC, an unreactive malignant EEG pattern (burstsuppression,
status epilepticus) after rewarming, the presence of
a marked reduction of the grey matter to white matter (GM/WM)
ratio or sulcal effacement on brain CT within 24 h after ROSC or the
presence of diffuse ischaemic changes on brain magnetic resonance
imaging (MRI) at 2–5 days after ROSC. Based on expert opinion, we
suggest waiting at least 24 h after the ﬁrst prognostication assessment
and conﬁrming unconsciousness with a Glasgow motor score
34 K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80
Fig. 1.16. Prognostication strategy algorithm. EEG – electroencephalography; NSE – neuron speciﬁc enolase; SSEP – somatosensory evoked potentials; ROSC – return of
spontaneous circulation; M – Motor score of Glasgow Coma Scale.
of 1–2 before using this second set of predictors. We also suggest
combining at least two of these predictors for prognostication.
No speciﬁc NSE threshold for prediction of poor outcome with
0% FPR can be recommended at present. Ideally, every hospital laboratory
assessing NSE should create its own normal values and
cut-off levels based on the test kit used. Sampling at multiple timepoints
is recommended to detect trends in NSE levels and to reduce
the risk of false positive results.480
Although the most robust predictors showed no false positives
in most studies, none of them singularly predicts poor outcome
with absolute certainty. Moreover, those predictors have often been
used for WLST decisions, with the risk of a self-fulﬁlling prophecy.
For this reason, we recommend that prognostication should be
multimodal whenever possible, even in presence of one of these
predictors. Apart from increasing safety, limited evidence also suggests
that multimodal prognostication increases sensitivity.481–484
When dealing with an uncertain outcome, clinicians should consider
prolonged observation. Absence of clinical improvement over
time suggests a worse outcome. Although awakening has been
described as late as 25 days after arrest,485–487 most survivors
will recover consciousness within one week.376,488–491 In a recent
observational study,490 94% of patients awoke within 4.5 days from
rewarming and the remaining 6% awoke within ten days. Even
those awakening late can still have a good neurological outcome.490
Rehabilitation
Although neurological outcome is considered to be good for
the majority of cardiac arrest survivors, cognitive and emotional
problems and fatigue are common.452,492–494 Long-term cognitive
impairments, mostly mild, are present in half of survivors.453,495,496
Mild cognitive problems are often not recognised by health
care professionals and cannot be detected with standard outcome
scales such as the Cerebral Performance Categories (CPC)
or the Mini-Mental State Examination (MMSE).452,497 Both cognitive
and emotional problems have signiﬁcant impact and can
affect a patient’s daily functioning, return to work and quality of
life.494,498,499 after hospital discharge should be organised systematically
and can be provided by a physician or specialised nurse. It
should at least include screening for cognitive impairments and for
emotional problems, and the provision of information.
Organ donation
Organ donation should be considered in those who have
achieved ROSC and who fulﬁl criteria for death using neurological
criteria.500 In those comatose patients in whom a decision is made
to withdraw life-sustaining therapy, organ donation should be considered
after circulatory death occurs. Organ donation can also be
K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80 35
considered in individuals where CPR is not successful in achieving
ROSC. All decisions concerning organ donation must follow local
legal and ethical requirements, as these vary in different settings.
Screening for inherited disorders
Many sudden death victims have silent structural heart disease,
most often coronary artery disease, but also primary arrhythmia
syndromes, cardiomyopathies, familial hypercholesterolaemia and
premature ischaemic heart disease. Screening for inherited disorders
is crucial for primary prevention in relatives as it may
enable preventive antiarrhythmic treatment and medical follow-
up.154,155,501
Cardiac arrest centres
There is wide variability in survival among hospitals caring for
patients after resuscitation from cardiac arrest.261,371,502–506 Many
studies have reported an association between survival to hospital
discharge and transport to a cardiac arrest centre but there is
inconsistency in the hospital factors that are most related to patient
outcome.368,371,504,507,508 There is also inconsistency in the services
that together deﬁne a cardiac arrest centre. Most experts agree that
such a centre must have a cardiac catheterisation laboratory that
is immediately accessible 24/7 and the facility to provide targeted
temperature management.
Paediatric life support
This section of the ERC GL 2015 on Paediatric Life Support
includes:
• Basic life support
• Management of foreign bodies in the airway
• Prevention of cardiac arrest
• Advanced life support during cardiac arrest
• Post-resuscitation care
Paediatric basic life support
From the ILCOR CoSTR statement on the sequence for manoeuvres
in BLS, there was found to be equipoise between the CAB
sequence (compression for circulation, airway and breathing)
and the ABC sequence (airway, breathing and compression for
circulation).509–511 Given that the ABC sequence has become an
established and well recognised method for the delivery of CPR to
children in Europe, the ERC PLS Writing Group determined that
the use of this sequence should continue, particularly as the previous
guidelines have led to its instruction to many hundreds of
thousands of healthcare providers and lay people.
Sequence of actions in basic life support
Rescuers who have been taught adult BLS or the chest
compression-only sequence and have no speciﬁc knowledge of paediatric
resuscitation may use this, as the outcome is worse if they
do nothing. However, it is better to provide rescue breaths as part of
the resuscitation sequence when applied to children as the asphyxial
nature of most paediatric cardiac arrests necessitates ventilation
as part of effective CPR.119,120 Non-specialists who wish to learn
paediatric resuscitation because they have responsibility for children
(e.g. teachers, school nurses, lifeguards), should be taught that
it is preferable to modify adult BLS and perform ﬁve initial breaths
followed by 1 min of CPR before they go for help (see adult BLS
guidelines).
Not breathing normally?
5 rescue breaths
15 chest compressions
2 rescue breaths
15 compressions
Call cardiac arrest team
or Paediatric ALS team
after 1 minute of CPR
No signs of life?
Open airway
Shout for help
Unresponsive?
Paediatric basic life support
Fig. 1.17. Paediatric basic life support algorithm.
Basic life support for those with a duty to respond
The following sequence is to be followed by those with a duty
to respond to paediatric emergencies (usually health professionals)
(Fig. 1.17). Although the following sequence describes expired air
ventilation, health professionals with a responsibility for treating
children will usually have access to, and training in the use of bag
mask ventilation (BMV), and these should be used to provide rescue
breaths.
1. Ensure the safety of rescuer and child
2. Check the child’s responsiveness
• Stimulate the child and ask loudly: Are you all right?
3A. If the child responds by answering, crying or moving:
• Leave the child in the position in which you ﬁnd him (provided
he is not in further danger).
• Check his condition and call for help.
• Reassess him regularly.
3B. If the child does not respond:
• Shout for help.
• Turn the child carefully on his back.
• Open the child’s airway by tilting the head and lifting the chin.
◦ Place your hand on his forehead and gently tilt his head back.
◦ At the same time, with your ﬁngertip(s) under the point of the
child’s chin, lift the chin. Do not push on the soft tissues under
36 K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80
Fig. 1.18. Mouth-to-mouth-and-nose ventilation – infant.
the chin as this may obstruct the airway. This is especially
important in infants.
◦ If you still have difﬁculty in opening the airway, try a jaw
thrust: place the ﬁrst two ﬁngers of each hand behind each
side of the child’s mandible and push the jaw forward.
Have a low threshold for suspecting an injury to the neck;
if so, try to open the airway by jaw thrust alone. If jaw thrust
alone does not enable adequate airway patency, add head tilt a
small amount at a time until the airway is open.
4. Keeping the airway open, look, listen and feel for normal
breathing by putting your face close to the child’s face and
looking along the chest:
• Look for chest movements
• Listen at the child’s nose and mouth for breath sounds
• Feel for air movement on your cheek.
In the ﬁrst few minutes after a cardiac arrest a child may
be taking slow infrequent gasps. Look, listen and feel for no
more than 10 s before deciding – if you have any doubt whether
breathing is normal, act as if it is not normal:
5A. If the child is breathing normally:
• Turn the child on his side into the recovery position (see below).
If there is a history of trauma, cervical spine injury should be
considered.
• Send or go for help – call the emergency services.
• Check for continued breathing.
5B. If breathing is not normal or absent:
• Carefully remove any obvious airway obstruction.
• Give ﬁve initial rescue breaths.
• While performing the rescue breaths note any gag or cough
response to your action. These responses or their absence will
form part of your assessment of ‘signs of life’, which will be
described later.
Rescue breaths for an infant
• Ensure a neutral position of the head as an infant’s head is usually
ﬂexed when supine, this may require some extension (a
rolled towel/blanket under the upper part of the body may help
to maintain the position) and a chin lift.
• Take a breath and cover the mouth and nose of the infant with
your mouth, making sure you have a good seal. If the nose
and mouth cannot be covered in the older infant, the rescuer
may attempt to seal only the infant’s nose or mouth with his
mouth (if the nose is used, close the lips to prevent air escape)
(Fig. 1.18).
• Blow steadily into the infant’s mouth and nose for about 1 s,
sufﬁcient to make the chest visibly rise.
Fig. 1.19. Mouth-to-mouth ventilation – child.
• Maintain head position and chin lift, take your mouth away
from the victim and watch for his chest to fall as air comes out.
• Take another breath and repeat this sequence ﬁve times.
Rescue breaths for a child over 1 year of age
• Ensure head tilt and chin lift.
• Pinch the soft part of the nose closed with the index ﬁnger and
thumb of your hand on his forehead.
• Allow the mouth to open, but maintain chin lift.
• Take a breath and place your lips around the mouth, making
sure that you have a good seal (Fig. 1.19).
• Blow steadily into the mouth for about 1 s, watching for chest
rise.
• Maintain head tilt and chin lift, take your mouth away from the
victim and watch for his chest to fall as air comes out.
• Take another breath and repeat this sequence ﬁve times. Identify
effectiveness by seeing that the child’s chest has risen and
fallen in a similar fashion to the movement produced by a normal
breath.
For both infants and children, if you have difﬁculty achieving
an effective breath, the airway may be obstructed:
• Open the child’s mouth and remove any visible obstruction. Do
not perform a blind ﬁnger sweep.
• Reposition the head. Ensure that there is adequate head tilt and
chin lift but also that the neck is not over-extended.
• If head tilt and chin lift has not opened the airway, try the jaw
thrust method.
• Make up to ﬁve attempts to achieve effective breaths, if still
unsuccessful, move on to chest compressions.
6. Assess the child’s circulation
Take no more than 10 s to:
Look for signs of life – this includes any movement, coughing
or normal breathing (gasps or infrequent, irregular breaths are
abnormal). If you check the pulse, ensure that you take no more
than 10 s. Pulse check is unreliable and therefore the complete
picture of how the patient appears must guide whether BLS is
required, i.e. if there are no signs of life, start BLS.40,41
7A. If you are conﬁdent that you can detect signs of life
within 10 s
• Continue rescue breathing, if necessary, until the child starts
breathing effectively on his own
• Turn the child on his side (into the recovery position, with caution
if there is a history of trauma) if he remains unconscious.
• Re-assess the child frequently.
7B. If there are no signs of life
• Start chest compressions.
K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80 37
Xiphoid process Sternum (lower half)
Fig. 1.20. Chest compression – infant.
• Combine rescue breathing and chest compressions at a ratio of
15 compressions to 2 ventilations.
Chest compressions. For all children, compress the lower half of
the sternum. The compression should be sufﬁcient to depress the
sternum by at least one third of the anterior-posterior diameter
of the chest. Release the pressure completely and repeat at a rate
100–120 min−1. After 15 compressions, tilt the head, lift the chin,
and give two effective breaths. Continue compressions and breaths
in a ratio of 15:2.
Chest compression in infants. The lone rescuer compresses the
sternum with the tips of two ﬁngers (Fig. 1.20). If there are two or
more rescuers, use the encircling technique. Place both thumbs ﬂat
side by side on the lower half of the sternum (as above) with the tips
pointing towards the infant’s head. Spread both hands with the ﬁngers
together to encircle the lower part of the infant’s rib cage. The
ﬁngers should support the infant’s back. For both methods, depress
the lower sternum by at least one third the anterior-posterior
dimension of the infant’s chest or by 4 cm.512
Chest compression in children over 1 year of age. To avoid compressing
the upper abdomen, locate the xiphisternum by ﬁnding
the angle where the lowest ribs join in the middle. Place the heel
of one hand on the sternum one ﬁnger’s breadth above this. Lift
the ﬁngers to ensure that pressure is not applied onto the child’s
ribs. Position yourself above the victim’s chest and, with your arm
straight, compress the sternum to at least one third of the anteriorposterior
dimension of the chest or by 5 cm (Fig. 1.21).512,513 In
larger children or for small rescuers, this is achieved most easily by
using both hands, with the rescuer’s ﬁngers interlocked (Fig. 1.22).
8. Do not interrupt resuscitation until:
• The child shows signs of life (starts to wake up, to move, opens
eyes and to breathe normally).
• More healthcare workers arrive and can either assist or take over.
• You become exhausted.
When to call for assistance
It is vital for rescuers to get help as quickly as possible when a
child collapses.
• When more than one rescuer is available, one starts resuscitation
while another rescuer goes for assistance.
Fig. 1.21. Chest compression with one hand – child.
• If only one rescuer is present, undertake resuscitation for about
1 min or 5 cycles of CPR before going for assistance. To minimise
interruption in CPR, it may be possible to carry an infant or small
child whilst summoning help.
• If you are on your own, witness a child suddenly collapse and you
suspect a primary cardiac arrest, call for help ﬁrst and then start
CPR as the child will likely need urgent deﬁbrillation. This is an
uncommon situation.
Fig. 1.22. Chest compression with two hands – child.
38 K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80
Table 1.1
Signs of foreign body airway obstruction.
General signs of FBAO
Witnessed episode
Coughing/choking
Sudden onset
Recent history of playing with/eating small objects
Ineffective cough Effective cough
Unable to vocalise Crying or verbal response to questions
Quiet or silent cough Loud cough
Unable to breathe Able to take a breath before coughing
Cyanosis Fully responsive
Decreasing level of consciousness
Automated external deﬁbrillation and basic life support
Continue with CPR until the AED arrives. Attach the AED and
follow the instructions. For 1–8 year old, use attenuated pads if
available, as explained in the section on Adult Basic Life Support
and Automated External Deﬁbrillation.1
Recovery position
An unconscious child whose airway is clear, and who is breathing
normally, should be turned on his side into the recovery
position. There are several recovery positions; they all aim to prevent
airway obstruction and reduce the likelihood of ﬂuids such as
saliva, secretions or vomit from entering into the upper airway.
Foreign body airway obstruction (FBAO)
Suspect FBAO if the onset was very sudden and there are no
other signs of illness; there may be clues to alert the rescuer, e.g.
a history of eating or playing with small items immediately before
the onset of symptoms (Table 1.1)
Back blows, chest thrusts and abdominal thrusts all increase
intra-thoracic pressure and can expel foreign bodies from the airway.
If one is unsuccessful, try the others in rotation until the object
is cleared (Fig. 1.23).
The most signiﬁcant difference from the adult algorithm is that
abdominal thrusts should not be used for infants. Although abdominal
thrusts have caused injuries in all age groups, the risk is
particularly high in infants and very young children. For this reason,
the guidelines for the treatment of FBAO are different between
infants and children.
Recognition of foreign body airway obstruction
Active interventions to relieve FBAO are required only when
coughing becomes ineffective, but they then need to be commenced
rapidly and conﬁdently
Relief of FBAO
1. Safety and summoning assistance. The principle of do no harm
should be applied, i.e. if the child is able to breathe and cough, even
with difﬁculty, encourage these spontaneous efforts. Do not intervene
at this point as this may move the foreign body and worsen
the problem, e.g. by causing full airway obstruction.
• If the child is coughing effectively, no manoeuvre is necessary.
Encourage the child to cough and continue monitoring the child’s
condition.
• If the child’s coughing is (or is becoming) ineffective, shout for
help immediately and determine the child’s conscious level.
2. Conscious child with FBAO.
• If the child is still conscious but has absent or ineffective coughing,
give back blows.
• If back blows do not relieve the FBAO, give chest thrusts to infants
or abdominal thrusts to children. These manoeuvres create an
artiﬁcial cough, increasing intrathoracic pressure and dislodging
the foreign body.
If back blows fail to dislodge the object, and the child is still
conscious, use chest thrusts for infants or abdominal thrusts for
children. Do not use abdominal thrusts (Heimlich manoeuvre) in
infants.
Following the chest or abdominal thrusts, reassess the child.
If the object has not been expelled and the victim is still conscious,
continue the sequence of back blows and chest (for
Paediatric Foreign Body Airway Obstruction Treatment
Assess severity
Unconscious
Open airway
5 breaths
Start CPR
Conscious
5 back blows
5 thrusts
(chest only for infants)
(alternative abdominal and
chest for child >1 year)
Encourage cough
Continue to check
for deterioration
until obstruction relieved
Fig. 1.23. Paediatric foreign body airway obstruction algorithm.
K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80 39
infant) or abdominal (for children) thrusts. Call out, or send, for
help if it is still not available. Do not leave the child at this
stage.
If the object is expelled successfully, assess the child’s clinical
condition. It is possible that part of the object may remain in the
respiratory tract and cause complications. If there is any doubt, seek
medical assistance. Abdominal thrusts may cause internal injuries
and all victims treated with abdominal thrusts should be examined
by a doctor.514
3. Unconscious child with FBAO. If the child with FBAO is, or becomes,
unconscious, place him on a ﬁrm, ﬂat surface. Call out, or send, for
help if it is still not available. Do not leave the child at this stage;
proceed as follows.
Airway opening. Open the mouth and look for any obvious
object. If one is seen, make an attempt to remove it with a single
ﬁnger sweep. Do not attempt blind or repeated ﬁnger sweeps
– these could push the object deeper into the pharynx and cause
injury.
Rescue breaths. Open the airway using a head tilt/chin lift and
attempt ﬁve rescue breaths. Assess the effectiveness of each breath:
if a breath does not make the chest rise, reposition the head before
making the next attempt.
Chest compressions and CPR.
• Attempt ﬁve rescue breaths and if there is no response (moving,
coughing, spontaneous breaths) proceed to chest compressions
without further assessment of the circulation.
• Follow the sequence for single rescuer CPR for approximately a
minute or 5 cycles of 15 compressions to 2 ventilations before
summoning the EMS (if this has not already been done by someone
else).
• When the airway is opened for attempted delivery of rescue
breath, check if the foreign body can be seen in the
mouth.
• If an object is seen and can be reached, attempt to remove it with
a single ﬁnger sweep.
• If it appears the obstruction has been relieved, open and check
the airway as above; deliver rescue breaths if the child is not
breathing.
• If the child regains consciousness and exhibits spontaneous effective
breathing, place him in a safe position on his side (recovery
position) and monitor breathing and the level of consciousness
whilst awaiting the arrival of the EMS.
Paediatric advanced life support
Assessment of the seriously ill or injured child – the prevention of
cardiopulmonary arrest
In children, secondary cardiopulmonary arrests, caused by
either respiratory or circulatory failure, are more frequent than primary
arrests caused by arrhythmias.147,515–524 So-called asphyxial
arrests or respiratory arrests are also more common in young adulthood
(e.g. trauma, drowning and poisoning).119,525
As the outcome from cardiopulmonary arrest in children is poor,
identifying the preceding stages of circulatory or respiratory failure
is a priority as effective early intervention in these stages may be
lifesaving.
The order of assessment and intervention for any seriously ill
child follows the ABCDE principles.
• A indicates airway.
• B indicates breathing.
• C indicates circulation.
• D indicates disability.
• E indicates exposure.
The topics of D and E are beyond the remit of these guidelines
but are taught in paediatric life support courses.
Summoning a paediatric rapid response team or medical emergency
team may reduce the risk of respiratory and/or cardiac arrest
in hospitalised children outside the intensive care setting but the
evidence is limited on this point as the literature tends not to
separate out the team response alone from the other systems in
place to identify early deterioration.526–529 Processes to detect the
early deterioration are key in reducing the morbidity and mortality
of seriously ill and injured children. Speciﬁc scores can be used
(e.g. the paediatric early warning score, PEWS),530 but there is no
evidence that these improve the decision making process, or the
clinical outcome.512,531
Diagnosing respiratory failure: assessment of A and B. The assessment
of a potentially critically ill child starts with the assessment
of airway (A) and breathing (B). The signs of respiratory failure may
include:
• Respiratory rate outside the normal range for the child’s age –
either too fast or too slow.532
• Initially increased work of breathing, which may progress to
inadequate/decreased work of breathing as the child tires or compensatory
mechanisms fail.
• Additional noises such as stridor, wheeze, crackles, grunting, or
the loss of breath sounds.
• Decreased tidal volume marked by shallow breathing, decreased
chest expansion or decreased air entry at auscultation.
• Hypoxaemia (without/with supplemental oxygen) generally
identiﬁed by cyanosis but it is often detectable prior to this by
pulse oximetry.
There may be associated signs in other organ systems. Even
though the primary problem is respiratory, other organ systems
will be involved to try to ameliorate the overall physiological dis-
turbance.
These are detectable in step C of the assessment and include:
• Increasing tachycardia (compensatory mechanism to increase
tissue oxygen delivery).
• Pallor.
• Bradycardia (an ominous indicator of the loss of compensatory
mechanisms).
• Alteration in the level of consciousness (a sign that compensatory
mechanisms are failing) owing to poor perfusion of the brain.
Diagnosing circulatory failure: assessment of C. Circulatory failure
is characterised by a mismatch between the metabolic demand
by the tissues, and the delivery of oxygen and nutrients by the
circulation.532,533 Signs of circulatory failure might include:
• Increased heart rate (bradycardia is an ominous sign of physiological
decompensation).532
• Decreased systemic blood pressure.
• Decreased peripheral perfusion (prolonged capillary reﬁll time,
decreased skin temperature, pale or mottled skin) – signs of
increased vascular resistance.
• Bounding pulses, vasodilation with widespread erythema may be
seen in conditions with decreased vascular resistance.
• Weak or absent peripheral pulses.
• Decreased intravascular volume.
• Decreased urine output.
The transition from a compensatory state to decompensation
may occur in an unpredictable way. Therefore, the child should be
40 K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80
monitored, to detect and correct any deterioration in their physiological
parameters promptly.
Diagnosing cardiopulmonary arrest
Signs of cardiopulmonary arrest include:
• Unresponsiveness to pain (coma)
• Apnoea or gasping respiratory pattern
• Absent circulation
• Pallor or deep cyanosis
Palpation of a pulse is not reliable as the sole determinant of the
need for chest compressions.40,169,534,535 In the absence of signs of
life, rescuers (lay and professional) should begin CPR unless they
are certain that they can feel a central pulse within 10 seconds
(infants – brachial or femoral artery; children – carotid or femoral
artery). If there is any doubt, start CPR.42,169,170,536 If personnel
skilled in echocardiography are available, this investigation may
help to detect cardiac activity and potentially treatable causes for
the arrest.534
Management of respiratory and circulatory failure
Airway and breathing.
• Open the airway.
• Optimise ventilation.
• Ensure adequate oxygenation, start with 100% oxygen.
• Establish respiratory monitoring (ﬁrst line – pulse oximetry/peripheral
oxygen saturation – SpO2).
• Achieving adequate ventilation and oxygenation – this may
require the use of airway adjuncts +/− bag-mask ventilation
(BMV), the use of a laryngeal mask airway or other supraglottic
airway, securing a deﬁnitive airway by tracheal intubation and
positive pressure ventilation.
• For intubated children, it is standard practice that their end
tidal carbon dioxide levels are monitored. End tidal carbon dioxide
monitoring can also be used in non-intubated critically ill
patients.
• Very rarely, a surgical airway may be required.
Circulation.
• Establish cardiac monitoring (ﬁrst line – pulse oximetry/SpO2,
electrocardiography (ECG) and non-invasive blood pressure
(NIBP)).
• Secure intravascular access. This may be achieved by peripheral
intravenous (IV) or by intraosseous (IO) route. If already in situ, a
central intravenous catheter should be used.
• Give a ﬂuid bolus (20 ml kg−1) and/or drugs (e.g., inotropes, vasopressors,
anti-arrhythmics) to treat circulatory failure due to
hypovolaemia, e.g. from ﬂuid loss or maldistribution, as seen in
septic shock and anaphylaxis.
• Consider carefully the use of ﬂuid bolus in primary cardiac functioning
disorders, e.g. myocarditis, cardiomyopathy.
• Do not give a ﬂuid bolus in severe febrile illness when circulatory
failure is absent.512,537–539
• Isotonic crystalloids are recommended as initial resuscitation
ﬂuid in infants and children with any type of shock, including
septic shock.512,540–545
• Assess and re-assess the child repeatedly, beginning each time
with the airway before proceeding to breathing and then the
circulation. Blood gas and lactate measurement may be helpful.
• During treatment, capnography, invasive monitoring of arterial
blood pressure, blood gas analysis, cardiac output monitoring,
echocardiography and central venous oxygen saturation (ScvO2)
Table 1.2
Paediatric tracheal tube size in internal diameters (ID) based on age. This is a guide
only and tubes one size larger and smaller should always be available. Tracheal
tube size can also be estimated from the length of the child’s body, as indicated by
resuscitation tapes.
Uncuffed Cuffed
Premature neonates Gestational age in weeks/10 Not used
Full term neonates 3.5 Not usually used
Infants 3.5–4.0 3.0–3.5
Child 1–2 years 4.0–4.5 3.5–4.0
Child >2 years Age/4 + 4 Age/4 + 3.5
may be useful to guide the treatment of respiratory and/or circulatory
failure.225,226 Whilst the evidence for the use of these
techniques is of low quality, the general principles of monitoring
and assessing the impact of any interventions and those
responses are key in managing seriously ill children.
Airway. Open the airway by using basic life support techniques.
Oropharyngeal and nasopharyngeal airway adjuncts can help
maintain the airway.
Supraglottic airways devices (SADs) (including LMA). Although
bag-mask ventilation (BMV) remains the recommended ﬁrst line
method for achieving airway control and ventilation in children,
the SADs represent a range of acceptable airway devices that may
assist providers trained in their use.546,547
Tracheal intubation. Tracheal intubation is the most secure
and effective way to establish and maintain the airway. The oral
route for tracheal intubation is preferable during resuscitation. In
the conscious child, the judicious use of anaesthetics, sedatives
and neuromuscular blocking drugs is essential to avoid multiple
intubation attempts or intubation failure.548,549 Only skilled and
experienced practitioners should perform intubation.
Clinical examination and capnography should be used to ensure
that the tracheal tube remains secured and vital signs should be
monitored.550
Intubation during cardiopulmonary arrest. The child who is in
cardiopulmonary arrest does not require sedation or analgesia to be
intubated. Appropriate tracheal tube sizes are shown in Table 1.2.
A correctly sized cuffed tracheal tube is as safe as an
uncuffed tube for infants and children (not for neonates) provided
attention is paid to its placement, size and cuff inﬂation
pressure.551–553 As excessive cuff pressure may lead to ischaemic
damage to the surrounding laryngeal tissue and stenosis, cuff inﬂation
pressure should be monitored and maintained at less than
25 cm H2O.553
Conﬁrmation of correct tracheal tube placement. Displaced, misplaced
or obstructed tubes occur frequently in the intubated child
and are associated with an increased risk of death.554,555 No single
technique is 100% reliable for distinguishing oesophageal from
tracheal intubation. If the child is in cardiopulmonary arrest and
exhaled CO2 is not detected despite adequate chest compressions,
or if there is any doubt as to the tube position, conﬁrm the placement
of the tracheal tube by direct laryngoscopy. After correct
placement and conﬁrmation, secure the tracheal tube and reassess
its position. Maintain the child’s head in the neutral position as ﬂexion
of the head will drive the tube further into the trachea whereas
extension may pull it out of the airway.556
Breathing.
Oxygenation. Give oxygen at the highest concentration (i.e.
100%) during initial resuscitation.
Once the child is stabilised and/or there is ROSC, titrate the fraction
of inspired oxygen (FiO2) to achieve normoxaemia, or at least
(if arterial blood gas is not available), maintain SpO2 in the range
of 94–98%.557,558
K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80 41
Ventilation. Healthcare providers commonly provide excessive
ventilation during CPR and this may be harmful. A simple
guide to deliver an appropriate tidal volume is to achieve normal
chest wall rise. Use a ratio of 15 chest compressions to 2
ventilations and a compression rate of 100–120 min−1. Once the
airway is protected by tracheal intubation, continue positive pressure
ventilation at 10 breaths min−1 without interrupting the chest
compressions. Take care to ensure that lung inﬂation is adequate
during chest compressions. Once ROSC has been achieved, provide
normal ventilation (rate/volume) based on the child’s age, and by
monitoring end-tidal CO2 and blood gas values, to achieve a normal
arterial carbon dioxide tension (PaCO2) and arterial oxygen
levels. Both hypocarbia and hypercarbia are associated with poor
outcomes following cardiac arrest.559 This means that the child
with ROSC should usually be ventilated at 12–24 breaths min−1,
according to their age normal values.
Bag mask ventilation. Bag mask ventilation (BMV) is effective
and safe for a child requiring assisted ventilation for a short
period.560,561 Assess the effectiveness of BMV by observing adequate
chest rise, monitoring heart rate and auscultating for breath
sounds, and measuring SpO2. Any healthcare provider with a
responsibility for treating children must be able to deliver BMV
effectively.
Monitoring of breathing and ventilation.
End-tidal CO2. Monitoring end-tidal CO2 (EtCO2) with a colorimetric
detector or capnometer conﬁrms tracheal tube placement
in the child weighing more than 2 kg, and may be used in preand
in-hospital settings, as well as during any transportation of
a child.562–565 A colour change or the presence of a capnographic
waveform for more than four ventilated breaths indicates that the
tube is in the tracheobronchial tree both in the presence of a perfusing
rhythm and during cardiopulmonary arrest. The absence of
exhaled CO2 during cardiopulmonary arrest does not guarantee
tube misplacement since a low or absent EtCO2 may reﬂect low or
absent pulmonary blood ﬂow.200,566–568 Although an EtCO2 higher
than 2 kPa (15 mmHg) may be an indicator of adequate resuscitation,
current evidence does not support the use of a threshold EtCO2
value as an indicator for the quality of CPR or for the discontinuation
of resuscitation.512
Peripheral pulse oximetry. Clinical evaluation to determine
the degree of oxygenation in a child is unreliable; therefore,
monitor the child’s peripheral oxygen saturation continuously by
pulse oximetry. Pulse oximetry can be unreliable under certain conditions,
e.g. if the child is in circulatory failure, in cardiopulmonary
arrest or has poor peripheral perfusion.
Circulation.
Vascular access. Vascular access is essential to enable drugs and
ﬂuids to be given, and blood samples obtained. Venous access can
be difﬁcult to establish during resuscitation of an infant or child.
In critically ill children, if attempts at establishing intravenous (IV)
access are unsuccessful after one minute, insert an intra-osseous
(IO) needle.208,569
Intraosseous access. Intraosseous (IO) access is a rapid, safe,
and effective route to give drugs, ﬂuids and blood products.570,571
The onset of action and time to achieve adequate plasma drug
concentrations are similar to that achieved via the central venous
route.212,572–574 Bone marrow samples can be used to cross match
for blood type or group for chemical analysis575–577 and for blood
gas measurement (the values may be comparable to central venous
blood gases if no drug has been injected in the cavity).212 Inject
large boluses of ﬂuid using manual pressure or a pressure bag.578
Maintain IO access until deﬁnitive IV access has been established.
Intravenous access and other routes. Central venous lines
provide more secure long-term access but, compared with IO or
peripheral IV access, offer no advantages during resuscitation.209
The tracheal route for the administration of drugs is no longer
recommended.579
Fluids and drugs. Isotonic crystalloids are recommended as the
initial resuscitation ﬂuid for infants and children with any type
of circulatory failure.580,581 If there are signs that the systemic
perfusion is inadequate, give a bolus of 20 ml kg−1 of an isotonic
crystalloid even if the systemic blood pressure is normal. Following
each bolus, re-assess the child’s clinical state, using the ABCDE
system of assessment, to decide whether a further bolus or other
treatment is required. In some children, early inotropic or vasopressor
support may be needed.582,583 There is growing evidence
to prefer the use of balanced crystalloids as these induce less hyperchloraemic
acidosis.584–587
In life-threatening hypovolaemic shock, as may be seen in rapid
blood loss in trauma, limiting the use of crystalloids in favour of
a regime of massive blood transfusion may be required. There are
varying regimes of combining plasma, platelets and other blood
products in delivering massive blood transfusion,588,589 so the
regime used should be according to local protocols.
Adrenaline. Adrenaline (epinephrine) plays a central role in
the cardiac arrest treatment algorithms for non-shockable and
shockable rhythms. For cardiopulmonary resuscitation, the recommended
IV/IO dose of adrenaline in children for the ﬁrst and for
subsequent doses is 10 ␮g kg−1. The maximum single dose is 1 mg.
If needed, give further doses of adrenaline every 3–5 min. The use
of single higher doses of adrenaline (above 10 ␮g kg−1) is not recommended
because it does not improve survival or neurological
outcome after cardiopulmonary arrest.590–594
Amiodarone for shock-resistant paediatric VF/pulseless VT. Amiodarone
can be used to treat paediatric shock-resistant VF/pulseless
VT (pVT). It is given after the third shock as a 5 mg kg−1 bolus (and
can be repeated following the ﬁfth shock). When treating other
cardiac rhythm disturbances, amiodarone must be injected slowly
(over 10–20 min) with systemic blood pressure and ECG monitoring
to avoid causing hypotension.595 This side effect is less common
with the aqueous solution.257
Atropine. Atropine is recommended only for bradycardia
caused by increased vagal tone or cholinergic drug toxicity.596–598
The commonly used dose is 20 ␮g kg−1. In bradycardia with poor
perfusion unresponsive to ventilation and oxygenation, the ﬁrst
line drug is adrenaline, not atropine.
Calcium. Calcium is essential for myocardial function,599 but
the routine use of calcium does not improve the outcome from cardiopulmonary
arrest.600,601 Calcium is indicated in the presence of
hypocalcaemia, calcium channel blocker overdose, hypermagnesaemia
and hyperkalaemia.602
Glucose. Data from neonates, children and adults indicate that
both hyper- and hypo-glycaemia are associated with poor outcome
after cardiopulmonary arrest,603 but it is uncertain if this
is causative or merely an association. Check blood or plasma glucose
concentration and monitor closely in any ill or injured child,
including after cardiac arrest. Do not give glucose-containing ﬂuids
during CPR unless hypoglycaemia is present.604 Avoid hyper- and
hypoglycaemia following ROSC.605
Magnesium. There is no evidence for giving magnesium routinely
during cardiopulmonary arrest.606,607 Magnesium treatment
is indicated in the child with documented hypomagnesaemia or
with torsade de pointes VT (50 mg kg−1), regardless of the cause.608
Sodium bicarbonate. There is no evidence for giving sodium
bicarbonate routinely during cardiopulmonary arrest.609–611
Sodium bicarbonate may be considered for the child with
prolonged cardiopulmonary arrest and/or severe metabolic acidosis.
Sodium bicarbonate may also be considered in case of
42 K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80
Fig. 1.24. Paddle positions for deﬁbrillation – child.
haemodynamic instability and co-existing hyperkalaemia, or in the
management of tricyclic antidepressant drug overdose.
Vasopressin–terlipressin. There is currently insufﬁcient evidence
to support or refute the use of vasopressin or terlipressin as
an alternative to, or in combination with, adrenaline in any cardiac
arrest rhythm in adults or children.246,248,249,612–616
Deﬁbrillators
Manual deﬁbrillators capable of delivering the full energy
requirements from neonates upwards must be available within
hospitals and in other healthcare facilities caring for children at
risk of cardiopulmonary arrest. Automated external deﬁbrillators
(AEDs) are pre-set for all variables including the energy dose.
Pad/paddle size for deﬁbrillation
Select the largest possible available paddles to provide good
contact with the chest wall. The ideal size is unknown but there
should be good separation between the pads.617,618 Recommended
sizes are 4.5 cm diameter for infants and children weighing <10 kg,
and 8–12 cm diameter for children weighing >10 kg (older than one
year). Self-adhesive pads facilitate continuous good quality CPR.
Position of the paddles
Apply the paddles ﬁrmly to the bare chest in the antero-lateral
position, one paddle placed below the right clavicle and the other
in the left axilla (Fig. 1.24). If the paddles are too large and there is
a danger of charge arcing across the paddles, one should be placed
on the upper back, below the left scapula and the other on the front,
to the left of the sternum.
Energy dose in children. In Europe we continue to recommend a
dose of 4 J kg−1 for initial and subsequent deﬁbrillation. Doses
higher than 4 J kg−1 (as much as 9 J kg−1) have deﬁbrillated children
effectively with negligible side effects.619,620
If no manual deﬁbrillator is available, use an AED that can
recognise paediatric shockable rhythms.621–623 The AED should
be equipped with a dose attenuator that decreases the delivered
energy to a value more suitable for children aged 1–8 years
(50–75 J).624,625 If such an AED in not available, use a standard
adult AED and the pre-set adult energy levels. For children older
than 8 years, use a standard AED with standard paddles. Experience
with the use of AEDs (preferably with dose attenuator) in children
younger than 1 year is limited; their use is acceptable if no other
option is available.
Advanced management of cardiopulmonary arrest
The paediatric advanced life support algorithm is shown in
Fig. 1.25. More detailed algorithms for the treatment of nonshockable
(Fig. 1.26) and shockable rhythms (Fig. 1.27) also shown.
Cardiac monitoring. Position the cardiac monitor leads or selfadhesive
pads as soon as possible to enable differentiation
between a shockable and a non-shockable cardiac rhythm.
Non-shockable rhythms are pulseless electrical activity (PEA),
bradycardia (<60 min−1 with no signs of circulation) and asystole.
PEA and bradycardia often have wide QRS complexes. Shockable
rhythms are pVT and VF. These rhythms are more likely after sudden
collapse in children with heart disease or in adolescents.
Non-shockable rhythms. Most cardiopulmonary arrests in children
and adolescents are of respiratory origin.626 A period of immediate
CPR is therefore mandatory in this age group before searching for
an AED or manual deﬁbrillator, as its immediate availability will not
improve the outcome of a respiratory arrest. The most common ECG
patterns in infants, children and adolescents with cardiopulmonary
arrest are asystole and PEA. PEA is characterised by electrical activity
on the ECG, and absent pulses. It commonly follows a period
of hypoxia or myocardial ischaemia, but occasionally can have a
reversible cause (i.e., one of the 4 Hs and 4 Ts) that led to a sudden
impairment of cardiac output.
Shockable rhythms. Primary VF occurs in 3.8–19% of cardiopulmonary
arrests in children, the incidence of pVT/VF increases as the
age increases.123,340,627–634 The primary determinant of survival
from VT/pVT cardiopulmonary arrest is the time to deﬁbrillation.
Pre-hospital deﬁbrillation within the ﬁrst 3 min of witnessed adult
VF arrest results in >50% survival. However, the success of deﬁbrillation
decreases dramatically the longer the time until deﬁbrillation:
for every minute delay in deﬁbrillation (without any CPR), survival
decreases by 7–10%. Secondary VF is present at some point in up
to 27% of in-hospital resuscitation events. It has a much poorer
prognosis than primary VF.635
Extracorporeal life support. Extracorporeal life support should be
considered for children with cardiac arrest refractory to conventional
CPR with a potentially reversible cause, if the arrest occurs
where expertise, resources and system are available to rapidly initiate
extracorporeal life support (ECLS).
Arrhythmias
Unstable arrhythmias
Check for signs of life and the central pulse of any child with an
arrhythmia; if signs of life are absent, treat as for cardiopulmonary
arrest. If the child has signs of life and a central pulse, evaluate
the haemodynamic status. Whenever the haemodynamic status is
compromised, the ﬁrst steps are:
1. Open the airway
2. Give oxygen and assist ventilation as necessary
3. Attach ECG monitor or deﬁbrillator and assess the cardiac
rhythm
4. Evaluate if the rhythm is slow or fast for the child’s age
5. Evaluate if the rhythm is regular or irregular
6. Measure QRS complex (narrow complexes: <0.08 s duration;
wide complexes: >0.08 s)
7. The treatment options are dependent on the child’s
haemodynamic stability.
K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80 43
Fig. 1.25. Paediatric advanced life support algorithm.
44 K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80
CARDIAC ARREST: NON SHOCKABLE RHYTHM
2 min 2 min 2 min 2 min 2 min
1° 2° 3° 4° 5°
Adrenaline
0.01 mg/kg
Adrenaline
0.01 mg/kg
Adrenaline
0.01 mg/kg
CPR ROSC
Ventilate / Oxygenate
Vascular Access IO / IV
Medications
Intubation
Fig. 1.26. Paediatric algorithm for non-shockable rhythm.
CARDIAC ARREST – SHOCKABLE RHYTHM
CPR ROSC
2 min 2 min 2 min 2 min 2 min 2 min 2 min
1° 2° 3° 4° 5° 6° 7°
Shock
4J/kg
Shock
4J/kg
Shock
4J/kg
Shock
4J/kg
Shock
4J/kg
Shock
4J/kg
Shock
4J/kg
Shock
4J/kg
Adrenaline
0.01 mg/kg
Adrenaline
0.01 mg/kg
Adrenaline
0.01 mg/kg
Ventilate / Oxygenate
Vascular Access IO / IV
Medications
Intubation
Amiodarone
5 mg/kg
Amiodarone
5 mg/kg
Fig. 1.27. Paediatric algorithm for shockable rhythm.
K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80 45
Bradycardia
Bradycardia is caused commonly by hypoxia, acidosis and/or
severe hypotension; it may progress to cardiopulmonary arrest.
Give 100% oxygen, and positive pressure ventilation if required,
to any child presenting with bradyarrhythmia and circulatory failure.
If a child with decompensated circulatory failure has a heart
rate <60 beats min−1, and they do not respond rapidly to ventilation
with oxygen, start chest compressions and give adrenaline.
Cardiac pacing (either transvenous or external) is generally
not useful during resuscitation. It may be considered in cases of
AV block or sinus node dysfunction unresponsive to oxygenation,
ventilation, chest compressions and other medications; pacing is
not effective in asystole or arrhythmias caused by hypoxia or
ischaemia.636
Tachycardia
Narrow complex tachycardia. If supraventricular tachycardia (SVT)
is the likely rhythm, vagal manoeuvres (Valsalva or diving reﬂex)
may be used in haemodynamically stable children. They can also
be used in haemodynamically unstable children, but only if they do
not delay chemical or electrical cardioversion.
Adenosine is usually effective in converting SVT into sinus
rhythm. It is given by rapid, intravenous injection as close as
practicable to the heart, and followed immediately by a bolus of
normal saline. If the child has signs of decompensated shock with
depressed conscious level, omit vagal manoeuvres and adenosine
and attempt electrical cardioversion immediately.
Electrical cardioversion (synchronised with R wave) is also indicated
when vascular access is not available, or when adenosine has
failed to convert the rhythm. The ﬁrst energy dose for electrical
cardioversion of SVT is 1 J kg−1 and the second dose is 2 J kg−1.
If unsuccessful, give amiodarone or procainamide under guidance
from a paediatric cardiologist or intensivist before the third
attempt. Verapamil may be considered as an alternative therapy in
older children but should not be routinely used in infants.
Wide complex tachycardia. In children, wide-QRS complex tachycardia
is uncommon and more likely to be supraventricular than
ventricular in origin.637 Nevertheless, in haemodynamically unstable
children, it must be considered to be VT until proven otherwise.
Ventricular tachycardia occurs most often in the child with underlying
heart disease (e.g., after cardiac surgery, cardiomyopathy,
myocarditis, electrolyte disorders, prolonged QT interval, central
intracardiac catheter). Synchronised cardioversion is the treatment
of choice for unstable VT with signs of life. Consider anti-arrhythmic
therapy if a second cardioversion attempt is unsuccessful or if VT
recurs.
Stable arrhythmias
Whilst maintaining the child’s airway, breathing and circulation,
contact an expert before initiating therapy. Depending on the
child’s clinical history, presentation and ECG diagnosis, a child with
stable, wide-QRS complex tachycardia may be treated for SVT and
be given vagal manoeuvres or adenosine.
Special circumstances
Life support for blunt or penetrating trauma
Cardiac arrest from major (blunt or penetrating) trauma is associated
with a very high mortality.292,638–643 Consider the 4Ts and
4Hs as potentially reversible causes. There is little evidence to support
any additional speciﬁc interventions that are different from the
routine management of cardiac arrest; however, the use of resuscitative
thoracotomy may be considered in children with penetrating
injuries.644,645
Extracorporeal membrane oxygenation (ECMO)
For infants and children with a cardiac diagnosis and an inhospital
arrest, ECMO should be considered as a useful rescue
strategy if expertise, adequate resources and systems are equally
available. There is insufﬁcient evidence to suggest for or against the
use of ECMO in non-cardiac arrest or for children with myocarditis
or cardiomyopathy who are not in arrest.512
Pulmonary hypertension
There is an increased risk of cardiac arrest in children with pulmonary
hypertension.646,647 Follow routine resuscitation protocols
in these patients with emphasis on high FiO2 and alkalosis/hyperventilation
because this may be as effective as inhaled
nitric oxide in reducing pulmonary vascular resistance.648
Post resuscitation care
Post cardiac arrest care must be a multidisciplinary activity and
include all the treatments needed for complete neurological recov-
ery.
Myocardial dysfunction
Myocardial dysfunction is common after cardiopulmonary
resuscitation.366,649–652 Parenteral ﬂuids and vasoactive drugs
(adrenaline, dobutamine, dopamine and noradrenaline) may
improve the child’s post-arrest haemodynamic status and should
be titrated to maintain a systolic blood pressure of at least >5th
centile for age.512
Goals for oxygenation and ventilation
Aim for a normal PaO2 range (normoxaemia) post-ROSC once a
patient is stabilised.559,653–655 There is insufﬁcient paediatric evidence
to suggest a speciﬁc PaCO2 target, however, PaCO2 should
be measured post-ROSC and adjusted according to patient characteristics
and needs.397,512,559,656 It is sensible to aim in general for
normocapnia, although this decision might be in part inﬂuenced by
context and disease.
Temperature control and management post ROSC
Mild hypothermia has an acceptable safety proﬁle in
adults446,450 and neonates.657 Recently the THAPCA out of hospital
study showed that both hypothermia (32–34 ◦C) and controlled
normothermia (36–37.5 ◦C) could be used in children.658 The study
did not show a signiﬁcant difference for the primary outcome
(neurologic status at one year) with either approach. After ROSC,
a strict control of the temperature must be maintained to avoid
hyperthermia (>37.5 ◦C) and severe hypothermia (<32 ◦C).512
Glucose control
Both hyper- and hypoglycaemia may impair outcome of critically
ill adults and children and should be avoided,659–661 but tight
glucose control may also be harmful.662 Monitor blood glucose and
avoid hypoglycaemia and hyperglycaemia.366,663,664
Prognosis of cardiopulmonary arrest
Although several factors are associated with outcome after
cardiopulmonary arrest and resuscitation there are no simple
guidelines to determine when resuscitative efforts become
futile.512,656 The relevant considerations in the decision to continue
the resuscitation include the duration of CPR, cause of arrest, preexisting
medical conditions, age, site of arrest, whether the arrest
was witnessed,519,665 the duration of untreated cardiopulmonary
arrest (‘no ﬂow’ time) the presence of a shockable rhythm as the
ﬁrst or subsequent rhythm, and associated special circumstances
(e.g., icy water drowning666,667 exposure to toxic drugs). The role
46 K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80
of the EEG as a prognostic factor is still unclear. Guidance on the
termination of resuscitation attempts is discussed in the chapter
on ethics in resuscitation and end-of-life decisions.10
Parental presence
In some Western societies, the majority of parents want to be
present during the resuscitation of their child. Families who are
present at their child’s death show better adjustment and undergo
a better grieving process.668 Evidence about parental presence during
resuscitation comes from selected countries and can probably
not be generalised to all of Europe, where there may be different
socio-cultural and ethical considerations.669,670
Resuscitation and support of transition of babies at birth
The guidelines that follow do not deﬁne the only way that resuscitation
at birth should be achieved; they do, however, represent a
widely accepted view of how resuscitation at birth can be carried
out both safely and effectively.
Preparation
A minority of infants require resuscitation at birth, but a few
more have problems with this perinatal transition, which, if no support
is given, might subsequently result in a need for resuscitation.
Of those needing any help, the overwhelming majority will require
only assisted lung aeration. A tiny minority may need a brief period
of chest compressions in addition to lung aeration.671–673 In deliveries
with a known increased risk of problems, specially trained
personnel should be present with at least one person experienced
in tracheal intubation. Each institution should have a protocol in
place for rapidly mobilising a team with competent resuscitation
skills for any birth.
Planned home deliveries
Recommendations as to who should attend a planned home
delivery vary from country to country, but the decision to undergo
a planned home delivery, once agreed with medical and midwifery
staff, should not compromise the standard of initial assessment,
stabilisation or resuscitation at birth. Ideally, two trained professionals
should be present at all home deliveries; one of these must
be fully trained and experienced in providing mask ventilation and
chest compressions in the newborn.
Equipment and environment
When a birth takes place in a non-designated delivery area, the
recommended minimum set of equipment includes a device for
safe assisted lung aeration and subsequent ventilation of an appropriate
size for the newborn, warm dry towels and blankets, a sterile
instrument for cutting and clamping the umbilical cord and clean
gloves for the attendant and assistants.
Timing of clamping the umbilical cord
A systematic review on delayed cord clamping and cord milking
in preterm infants found improved stability in the immediate
postnatal period, including higher mean blood pressure and
haemoglobin on admission, compared to controls.674 Delaying
umbilical cord clamping for at least one minute is recommended for
newborn infants not requiring resuscitation. A similar delay should
be applied to preterm babies not requiring immediate resuscitation
after birth. Until more evidence is available, infants who are not
breathing or crying may require the umbilical cord to be clamped,
so that resuscitation measures can commence promptly.
Temperature control
Naked, wet, newborn babies cannot maintain their body temperature
in a room that feels comfortably warm for adults. The
association between hypothermia and mortality has been known
for more than a century,675 and the admission temperature of
newborn non-asphyxiated infants is a strong predictor of mortality
at all gestations and in all settings.676 Preterm infants are
especially vulnerable. Maintain the temperature of newly born
non-asphyxiated infants at between 36.5 ◦C and 37.5 ◦C after birth.
Whilst maintenance of a baby’s temperature is important, this
should be monitored in order to avoid hyperthermia (>38.0 ◦C).
Initial assessment
The Apgar score was not designed to be assembled and ascribed
in order to then identify babies in need of resuscitation.677,678 However,
individual components of the score, namely respiratory rate,
heart rate and tone, if assessed rapidly, can identify babies needing
resuscitation.677 Repeated assessment particularly of heart rate
and, to a lesser extent breathing, can indicate whether the baby is
responding or whether further efforts are needed.
Breathing
Check whether the baby is breathing. If so, evaluate the rate,
depth and symmetry of breathing together with any evidence of an
abnormal breathing pattern such as gasping or grunting.
Heart rate
Immediately after birth the heart rate is assessed to evaluate the
condition of the baby and subsequently is the most sensitive indicator
of a successful response to interventions. Heart rate is initially
most rapidly and accurately assessed by listening to the apex beat
with a stethoscope679 or by using an electrocardiograph.680–682
Feeling the pulse in the base of the umbilical cord is often effective
but can be misleading, cord pulsation is only reliable if found to be
more than 100 beats per minute (bpm)679 and clinical assessment
may underestimate the heart rate.679,683,684 For babies requiring
resuscitation and/or continued respiratory support, a modern pulse
oximeter can give an accurate heart rate.681
Colour
Colour is a poor means of judging oxygenation,685 which is better
assessed using pulse oximetry if possible. A healthy baby is born
blue but starts to become pink within 30 s of the onset of effective
breathing. If a baby appears blue check preductal oxygenation with
a pulse oximeter.
Tone
A very ﬂoppy baby is likely to be unconscious and will need
ventilatory support.
Tactile stimulation
Drying the baby usually produces enough stimulation to induce
effective breathing. Avoid more vigorous methods of stimulation. If
the baby fails to establish spontaneous and effective breaths following
a brief period of stimulation, further support will be required.
Classiﬁcation according to initial assessment
On the basis of the initial assessment, the baby can be placed
into one of three groups:
1. Vigorous breathing or crying, good tone, heart rate higher than
100 min−1
K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80 47
Fig. 1.28. Newborn life support algorithm (SpO2: transcutaneous pulse oximetry, ECG: electrocardiograph, PPV: positive pressure ventilation).
48 K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80
Fig. 1.29. Newborn with head in neutral position.
There is no need for immediate clamping of the cord. This baby
requires no intervention other than drying, wrapping in a warm
towel and, where appropriate, handing to the mother.
2. Breathing inadequately or apnoeic, normal or reduced tone,
heart rate less than 100 min−1
Dry and wrap. This baby will usually improve with mask inﬂation
but if this does not increase the heart rate adequately, may
rarely also require ventilations.
3. Breathing inadequately or apnoeic, ﬂoppy, low or undetectable
heart rate, often pale suggesting poor perfusion
Dry and wrap. This baby will then require immediate airway
control, lung inﬂation and ventilation. Once this has been
successfully accomplished the baby may also need chest compressions,
and perhaps drugs.
Preterm babies may be breathing and showing signs of respiratory
distress in which case they should be supported initially
with CPAP.
Newborn life support
Commence newborn life support if initial assessment shows that
the baby has failed to establish adequate regular normal breathing,
or has a heart rate of less than 100 min−1. Opening the airway and
aerating the lungs is usually all that is necessary. Furthermore, more
complex interventions will be futile unless these two ﬁrst steps
have been successfully completed.
Airway
Place the baby on his or her back with the head in a neutral
position (Fig. 1.29). A 2 cm thickness of the blanket or towel placed
under the baby’s shoulder may be helpful in maintaining proper
head position. In ﬂoppy babies application of jaw thrust or the use
of an appropriately sized oropharyngeal airway may be essential in
opening the airway. The supine position for airway management
is traditional but side-lying has also been used for assessment and
routine delivery room management of term newborns.686 There is
no need to remove lung ﬂuid from the oropharynx routinely.687
Suction is needed only if the airway is obstructed.
Meconium
Lightly meconium stained liquor is common and does in general
not give rise to much difﬁculty with transition. The much less
common ﬁnding of very thick meconium stained liquor at birth is
an indicator of perinatal distress and should alert to the potential
need for resuscitation. Intrapartum suctioning and routine intubation
and suctioning of vigorous infants born through meconium
stained liquor are not recommended. The presence of thick, viscous
meconium in a non-vigorous baby is the only indication for initially
considering visualising the oropharynx and suctioning material,
which might obstruct the airway. Tracheal intubation should not
be routine in the presence of meconium and should only be performed
for suspected tracheal obstruction.688–692 The emphasis
Fig. 1.30. Mask ventilation of newborn.
should be on initiating ventilation within the ﬁrst minute of life
in non-breathing or ineffectively breathing infants and this should
not be delayed.
Initial breaths and assisted ventilation
After initial steps at birth, if breathing efforts are absent or
inadequate, lung aeration is the priority and must not be delayed
(Figs. 1.28 and 1.30). In term babies, respiratory support should
start with air.693 The primary measure of adequate initial lung inﬂation
is a prompt improvement in heart rate. If the heart rate is
not improving assess the chest wall movement. For the ﬁrst ﬁve
positive pressure inﬂations maintain the initial inﬂation pressure
for 2–3 s. This will usually help lung expansion.694,695 Most babies
needing respiratory support at birth will respond with a rapid
increase in heart rate within 30 s of lung inﬂation. If the heart rate
increases but the baby is not breathing adequately, ventilate at a
rate of about 30 breaths min−1 allowing approximately one second
for each inﬂation, until there is adequate spontaneous breathing.
Without adequate lung aeration, chest compressions will be ineffective;
therefore, conﬁrm lung aeration and ventilation before
progressing to circulatory support.
Some practitioners will ensure airway control by tracheal intubation,
but this requires training and experience. If this skill is not
available and the heart rate is decreasing, re-evaluate the airway
position and deliver inﬂation breaths while summoning a colleague
with intubation skills. Continue ventilatory support until the baby
has established normal regular breathing.
Air/oxygen
Term babies. In term infants receiving respiratory support at birth
with positive pressure ventilation (PPV), it is best to begin with
air (21%) as opposed to 100% oxygen. If, despite effective ventilation,
there is no increase in heart rate or oxygenation (guided by
oximetry wherever possible) remains unacceptable, use a higher
concentration of oxygen to achieve an adequate preductal oxygen
saturation.696,697 High concentrations of oxygen are associated
with an increased mortality and delay in time of onset of spontaneous
breathing,698 therefore, if increased oxygen concentrations
are used they should be weaned as soon as possible.693,699
Preterm babies. Resuscitation of preterm infants less than 35 weeks
gestation at birth should be initiated in air or low concentration
oxygen (21–30%).6,693,700,701 Titrate the administered oxygen concentration
to achieve acceptable pre-ductal oxygen saturations
K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80 49
Table 1.3
Oral tracheal tube lengths by gestation.
Gestation (weeks) ETT at lips (cm)
23–24 5.5
25–26 6.0
27–29 6.5
30–32 7.0
33–34 7.5
35–37 8.0
38–40 8.5
41–43 9.0
approximating to the 25th percentile in healthy term babies immediately
after birth.696,697
Pulse oximetry
Modern pulse oximetry, using neonatal probes, provides reliable
readings of heart rate and transcutaneous oxygen saturation
within 1–2 min of birth.702,703 Uncompromised babies born at term
at sea level have SpO2 ∼60% during labour,704 which increases to
>90% by 10 min.696 The 25th percentile is approximately 40% at
birth and increases to ∼80% at 10 min.697 Use pulse oximetry to
avoid excessive use of oxygen (Fig. 1.28). Transcutaneous oxygen
saturations above the acceptable levels should prompt weaning of
any supplemental oxygen.
Positive end expiratory pressure
All term and preterm babies who remain apnoeic despite initial
steps must receive positive pressure ventilation after initial lung
inﬂation. Provide positive end expiratory pressure (PEEP) of ∼5 cm
H2O for preterm newborn babies receiving PPV.676
Assisted ventilation devices
Effective ventilation can be achieved with a self-inﬂating
bag or with a T-piece mechanical device designed to regulate
pressure.705,706 However, self-inﬂating bags are the only devices,
which can be used in the absence of compressed gas but cannot
deliver continuous positive airway pressure (CPAP) and may not
be able to achieve PEEP even with a PEEP valve in place.707
Laryngeal mask airway
The LMA may be considered as an alternative to a facemask
or to tracheal intubation for positive pressure ventilation among
newborns weighing more than 2000 g or delivered ≥34 weeks
gestation.708,709 The laryngeal mask airway has not been evaluated
in the setting of meconium stained ﬂuid, during chest compressions,
or for the administration of emergency intra-tracheal
medications.
Tracheal tube placement
Tracheal intubation may be considered at several points during
neonatal resuscitation:
• When suctioning the lower airways to remove a presumed tracheal
blockage
• When, after correction of mask technique and/or the baby’s head
position, bag-mask ventilation is ineffective or prolonged
• When chest compressions are performed
• Special circumstances (e.g. congenital diaphragmatic hernia or to
give tracheal surfactant)
The use and timing of tracheal intubation will depend on the
skill and experience of the available resuscitators. Appropriate
tube lengths based on gestation are shown in Table 1.3.710 It
should be recognised that vocal cord guides, as marked on tracheal
Fig. 1.31. Ventilation and chest compression of newborn.
tubes by different manufacturers to aid correct placement, vary
considerably.711
Tracheal tube placement must be assessed visually during intubation,
and positioning conﬁrmed. Following tracheal intubation
and intermittent positive-pressure, a prompt increase in heart rate
is a good indication that the tube is in the tracheobronchial tree.712
Exhaled CO2 detection is effective for conﬁrmation of tracheal tube
placement in infants, including VLBW infants713–716 and neonatal
studies suggest that it conﬁrms tracheal intubation in neonates
with a cardiac output more rapidly and more accurately than clinical
assessment alone.715–717 Failure to detect exhaled CO2 strongly
suggests oesophageal intubation713,715 but false negative readings
have been reported during cardiac arrest 713 and in VLBW
infants.718 Detection of exhaled carbon dioxide in addition to clinical
assessment is recommended as the most reliable method to
conﬁrm tracheal placement in neonates with spontaneous circula-
tion.
Continuous positive airways pressure
Initial respiratory support of all spontaneously breathing
preterm infants with respiratory distress may be provided
by continuous positive airways pressure (CPAP), rather than
intubation.719–721 There are few data to guide the appropriate use
of CPAP in term infants at birth and further clinical studies are
required.722,723
Circulatory support
Give chest compressions if the heart rate is less than
60 beats min−1 despite adequate ventilation. As ventilation is the
most effective and important intervention in newborn resuscitation,
and may be compromised by compressions, it is vital to ensure
that effective ventilation is occurring before commencing chest
compressions.
The most effective technique for providing chest compressions
is with two thumbs over the lower third of the sternum with the ﬁngers
encircling the torso and supporting the back (Fig. 1.31).724 This
technique generates higher blood pressures and coronary artery
perfusion with less fatigue than the previously used two-ﬁnger
technique.725–728 The sternum is compressed to a depth of approximately
one-third of the anterior–posterior diameter of the chest
allowing the chest wall to return to its relaxed position between
compressions.729–732
50 K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80
2 umbilical arteries
1 umbilical vein
LEGS
HEAD
Fig. 1.32. Newborn umbilical cord showing the arteries and veins.
Use a 3:1 compression to ventilation ratio, aiming to achieve
approximately 120 events per minute, i.e. approximately 90 compressions
and 30 ventilations.733–738 Co-ordinate compressions
and ventilations to avoid simultaneous delivery.739 A 3:1 compression
to ventilation ratio is used for resuscitation at birth where
compromise of gas exchange is nearly always the primary cause
of cardiovascular collapse, but rescuers may consider using higher
ratios (e.g., 15:2) if the arrest is believed to be of cardiac origin.
When delivering chest compressions it would appear sensible to
increase the supplementary oxygen concentration towards 100%.
Check the heart rate after about 30 s and periodically thereafter.
Discontinue chest compressions when the spontaneous heart rate
is faster than 60 beats min−1.
Drugs
Drugs are rarely indicated in resuscitation of the newly born
infant. Bradycardia in the newborn infant is usually caused by
inadequate lung inﬂation or profound hypoxia, and establishing
adequate ventilation is the most important step to correct it. However,
if the heart rate remains less than 60 beats min−1 despite
adequate ventilation and chest compressions, it is reasonable to
consider the use of drugs. These are best given via a centrally positioned
umbilical venous catheter (Fig. 1.32).
Adrenaline. Despite the lack of human data it is reasonable to
use adrenaline when adequate ventilation and chest compressions
have failed to increase the heart rate above 60 beats min−1.
If adrenaline is used, give an initial dose of 10 micrograms kg−1
(0.1 ml kg−1 of 1:10,000 adrenaline) intravenously as soon as possible
with subsequent intravenous doses of 10–30 micrograms kg−1
(0.1–0.3 ml kg−1 of 1:10,000 adrenaline) if required.6,693,700 Do not
use the tracheal route.
Bicarbonate. There are insufﬁcient data to recommend routine use
of bicarbonate in resuscitation of the newly born. If it is used during
prolonged arrests unresponsive to other therapy, give a dose of
1–2 mmol kg−1 by slow intravenous injection after adequate ventilation
and perfusion have been established.
Fluids
If there has been suspected blood loss or the infant appears to be
in shock (pale, poor perfusion, weak pulse) and has not responded
adequately to other resuscitative measures then consider giving
ﬂuid.740 This is a rare event. In the absence of suitable blood,
give a bolus of isotonic crystalloid of 10 ml kg−1 initially. If successful
it may need to be repeated to maintain an improvement.
When resuscitating preterm infants volume is rarely needed and
has been associated with intraventricular and pulmonary haemorrhages
when large volumes are infused rapidly.
Withholding or discontinuing resuscitation
Mortality and morbidity for newborns varies according to
region and to availability of resources.741 Opinions vary amongst
providers, parents and societies about the balance of beneﬁts and
disadvantages of using aggressive therapies in such babies.742,743
Discontinuing resuscitation
Local and national committees will deﬁne recommendations for
stopping resuscitation. If the heart rate of a newly born baby is not
detectable and remains undetectable for 10 min, it may be appropriate
to consider stopping resuscitation. The decision should be
individualised. In cases where the heart rate is less than 60 min−1
at birth and does not improve after 10 or 15 min of continuous and
apparently adequate resuscitative efforts, the choice is much less
clear and ﬁrm guidance cannot be given.
Withholding resuscitation
It is possible to identify conditions associated with high mortality
and poor outcome, where withholding resuscitation may be
considered reasonable, particularly when there has been the opportunity
for discussion with parents.744–746 There is no evidence to
support the prospective use of any particular delivery room prognostic
score presently described, over gestational age assessment
alone, in preterm infants <25 weeks gestation. When withdrawing
or withholding resuscitation, care should be focused on the comfort
and dignity of the baby and family.
Communication with the parents
It is important that the team caring for the newborn baby
informs the parents of the baby’s progress. At delivery, adhere to the
routine local plan and, if possible, hand the baby to the mother at the
earliest opportunity. If resuscitation is required inform the parents
of the procedures undertaken and why they were required. Parents’
wishes to be present during resuscitation should be supported
where possible.747
Post-resuscitation care
Babies who have required resuscitation may later deteriorate.
Once adequate ventilation and circulation are established, the
infant should be maintained in or transferred to an environment
in which close monitoring and anticipatory care can be provided.
Glucose
The range of blood glucose concentration that is associated with
the least brain injury following asphyxia and resuscitation cannot
be deﬁned based on available evidence. Infants who require signiﬁcant
resuscitation should be monitored and treated to maintain
glucose in the normal range.
Induced hypothermia
Newly born infants born at term or near-term with evolving
moderate to severe hypoxic – ischaemic encephalopathy should,
where possible, be offered therapeutic hypothermia.748,749 Whole
body cooling and selective head cooling are both appropriate strategies.
There is no evidence in human newborns that cooling is
effective if started more than 6 h after birth.
Prognostic tools
Although widely used in clinical practice, for research purposes
and as a prognostic tool,750 the applicability of the APGAR
score has been questioned due to large inter- and intra-observer
variations. These are partly explained by a lack of agreement on
how to score infants receiving medical interventions or being born
K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80 51
Fig. 1.33. Deﬁnitions of acute coronary syndromes (ACS); ECG, electrocardiogram;
LBBB, left bundle branch block; STEMI, ST-elevation myocardial infarction; NSTEMI,
non-ST-elevation acute myocardial infarction; c troponin, cardiac troponin; UAP,
unstable angina pectoris; TIMI, thrombolysis in acute myocardial infarction; GRACE,
global registry of acute coronary events.
preterm. Therefore a development of the score was recommended
as follows: all parameters are scored according to the conditions
regardless of the interventions needed to achieve the condition and
considering whether being appropriate for gestational age. In addition,
the interventions needed to achieve the condition have to be
scored as well. This Combined-Apgar has been shown to predict
outcome in preterm and term infants better than the conventional
score.751,752
Brieﬁng/debrieﬁng
Prior to resuscitation it is important to discuss the responsibilities
of each member of the team. After the management in the
delivery room a team debrief of the event using positive and constructive
critique techniques should be conducted and personal
bereavement counselling offered to those with a particular need.
Initial management of acute coronary syndromes
The term acute coronary syndrome (ACS) encompasses three
different entities of the acute manifestation of coronary heart disease
(Fig. 1.33): ST elevation myocardial infarction (STEMI), non-ST
elevation myocardial infarction and unstable angina pectoris (UAP).
Non-ST elevation myocardial infarction and UAP are usually combined
in the term non-STEMI-ACS. The common pathophysiology
of ACS is a ruptured or eroded atherosclerotic plaque.753 Electrocardiographic
(ECG) characteristics (absence or presence of ST
elevation) differentiate STEMI from non-STEMI ACS. The latter may
present with ST segment depression, nonspeciﬁc ST segment wave
abnormalities, or even a normal ECG. In the absence of ST elevation,
an increase in the plasma concentration of cardiac biomarkers, particularly
troponin T or I as the most speciﬁc markers of myocardial
cell necrosis, indicates non-STEMI.
Acute coronary syndromes are the commonest cause of malignant
arrhythmias leading to sudden cardiac death. The therapeutic
goals are to treat acute life-threatening conditions, such as ventricular
ﬁbrillation (VF) or extreme bradycardia, and to preserve
left ventricular function and prevent heart failure by minimising
the extent of myocardial damage. The current guidelines address
the ﬁrst hours after onset of symptoms. Out-of-hospital treatment
and initial therapy in the emergency department (ED) may vary
according to local capabilities, resources and regulations. These recommendations
are consistent with the guidelines for the diagnosis
and treatment of ACS with and without ST elevation published by
the European Society of Cardiology and the American College of
Cardiology/American Heart Association.424,754
Diagnosis and risk stratiﬁcation in acute coronary syndromes
Signs and symptoms of ACS
Typically ACS appears with symptoms such as radiating chest
pain, shortness of breath and sweating; however, atypical symptoms
or unusual presentations may occur in the elderly, in females,
and in diabetics. None of these signs and symptoms of ACS can be
used alone for the diagnosis of ACS. A reduction in chest pain after
nitroglycerin administration can be misleading and is not recommended
as a diagnostic manoeuvre.755 Symptoms may be more
intense and last longer in patients with STEMI but are not reliable
for discriminating between STEMI and non-STEMI-ACS.424,756–758
12-lead ECG
When an ACS is suspected, a 12-lead-ECG should be acquired
and interpreted as soon as possible after ﬁrst patient contact, to
facilitate early diagnosis and triage.754,756,758 STEMI is typically
diagnosed when, ST-segment elevation, measured at the J point, fulﬁlling
speciﬁc voltage criteria in the absence of left ventricular (LV)
hypertrophy or left bundle branch block (LBBB).424 In patients with
clinical suspicion of ongoing myocardial ischaemia with new or
presumed new LBBB, consider prompt reperfusion therapy, preferably
using primary PCI (PPCI). Right precordial leads should be
recorded in all patients with inferior STEMI in order to detect right
ventricular MI.
Recording of a 12-lead ECG out-of-hospital enables advanced
notiﬁcation to the receiving facility and expedites treatment decisions
after hospital arrival. In many studies, using pre-hospital
12-lead ECG, the time from hospital admission to initiating reperfusion
therapy is reduced by 10 to 60 minutes. This is associated
with shorter times to reperfusion and improved patient survival in
both patients with PCI and those undergoing ﬁbrinolysis.759–767
Trained EMS personnel (emergency physicians, paramedics and
nurses) can identify STEMI with a high speciﬁcity and sensitivity
comparable to diagnostic accuracy in the hospital.768,769
It is thus reasonable that paramedics and nurses be trained
to diagnose STEMI without direct medical consultation, as long
as there is strict concurrent provision of quality assurance. If
interpretation of the pre-hospital ECG is not available on-site,
computer interpretation770,771 or ﬁeld transmission of the ECG is
reasonable.762,770–777
Biomarkers, rules for early discharge and chest pain observation
protocols
In the absence of ST elevation on the ECG, the presence of a
suggestive history and elevated concentrations of biomarkers (troponins,
CK and CKMB) characterise non-STEMI and distinguish
it from STEMI and unstable angina respectively. Highly sensitive
52 K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80
(ultrasensitive) cardiac troponin assays can increase sensitivity and
accelerate diagnosis of MI in patients with symptoms suspicious of
cardiac ischaemia.778 Cardiac biomarker testing should be part of
the initial evaluation of all patients presenting to the ED with symptoms
suggestive of cardiac ischaemia. However, the delay in release
of biomarkers from damaged myocardium prevents their use in
diagnosing myocardial infarction in the ﬁrst hours after the onset of
symptoms. For patients who present within 6 h of symptom onset,
and have an initial negative cardiac troponin, biomarkers should
be measured again between 2–3 and up to 6 h later for hs-cTn (12 h
with regular troponin).
In patients suspected of an ACS the combination of an unremarkable
past history and physical examination with negative
initial ECG and biomarkers cannot be used to exclude ACS reliably.
Therefore a follow up period is mandatory in order to reach a diagnosis
and make therapeutic decisions. At some point after AMI is
excluded, the evaluation of the patient should be complemented by
either a non-invasive evaluation for anatomical coronary disease or
provocative testing for inducible myocardial ischaemia.
Imaging techniques
Effective screening of patients with suspected ACS, but with
negative ECG and negative cardiac biomarkers, remains challenging.
Non invasive imaging techniques (CT angiography,779
cardiac magnetic resonance, myocardial perfusion imaging,780 and
echocardiography781) have been evaluated as means of screening
these low-risk patients and identifying subgroups that can be discharged
home safely.782–785 Echocardiography should be routinely
available in the ED, and used in all patients with suspected ACS.
Multi-detector computer tomography coronary angiography
(MDCTCA) has been recently proposed in the management acute
chest pain in the ED. In a recent meta-analysis, MDCTCA demonstrated
a high sensitivity and a low negative likelihood ratio of
0.06, and was effective in ruling out the presence of ACS in low
to intermediate risk patients presenting to the ED with acute chest
pain.786 But the inability of anatomical ﬁndings to prove the presence
of ischaemia, the cancer risk induced by radiation exposure
and potential overuse still raise concerns about the relevance of
this strategy.
Treatment of acute coronary syndromes – symptoms
Nitrates
Glyceryl trinitrate may be considered if the systolic blood pressure
(SBP) is above 90 mmHg and the patient has ongoing ischaemic
chest pain (Fig. 1.34). Glyceryl trinitrate can also be useful in the
treatment of acute pulmonary congestion. Do not use nitrates in
patients with hypotension (SBP ≤ 90 mmHg), particularly if combined
with bradycardia, and in patients with inferior infarction
and suspected right ventricular involvement. Give glyceryl trinitrate
0.4 mg sublingual or equivalent every 5 min up to 3 doses as
SBP allows. Begin IV dosing at 10 ␮g min−1 for persistent pain or
pulmonary oedema; titrate to desired BP effect.
Analgesia
Morphine is the analgesic of choice for nitrate-refractory pain
and also has calming effects on the patient making sedatives
unnecessary in most cases. Since morphine is a dilator of venous
capacitance vessels, it may have additional beneﬁt in patients with
pulmonary congestion. Give morphine in initial doses of 3–5 mg
intravenously and repeat every few minutes until the patient is
pain-free. Avoid non-steroidal anti-inﬂammatory drugs (NSAIDs)
for analgesia because they have pro-thrombotic effects.787
Oxygen
Evidence is accumulating about the questionable role of supplemental
oxygen in cardiac arrest, after ROSC and in ACS. Patients
with acute chest pain with presumed ACS do not need supplemental
oxygen unless they present with signs of hypoxia, dyspnoea or
heart failure. There is increasing evidence suggesting that hyperoxia
may be harmful in patients with uncomplicated myocardial
infarction.393,788–790 During cardiac arrest, use 100% oxygen. After
ROSC, titrate the inspired oxygen concentration to achieve arterial
blood oxygen saturation in the range of 94–98%, or 88–92 in chronic
obstructive pulmonary disease.424,791
Treatment of acute coronary syndromes – cause
Inhibitors of platelet aggregation
Platelet activation and aggregation following atherosclerotic
plaque rupture are central pathophysiologic mechanisms of acute
coronary syndromes and antiplatelet therapy is a pivotal treatment
of ACS whether with or without ST segment elevation, with or
without reperfusion and with or without revascularisation.
Acetylsalicylic acid (ASA). Large randomised controlled trials indicate
decreased mortality when ASA (75–325 mg) is given to
hospitalised patients with ACS independent of the reperfusion or
revascularisation strategy.
ADP receptor inhibitors. The inhibition of the platelet ADP receptor
by the thienopyridines clopidogrel and prasugrel (irreversible
inhibition) and the cyclo-pentyl-triazolo-pyrimidine ticagrelor
(reversible inhibition) leads to further inhibition of platelet aggregation
in addition to that produced by ASA.
Glycoprotein (Gp) IIB/IIIA inhibitors. Glycoprotein (Gp) IIB/IIIA
receptor activation is the common ﬁnal link of platelet aggregation.
Eptiﬁbatide and tiroﬁban lead to reversible inhibition, while
abciximab leads to irreversible inhibition of the Gp IIB/IIIA receptor.
There are insufﬁcient data to support routine pre-treatment with
Gp IIB/IIIA receptor blockers in patients with STEMI or non-STEMIACS.
Do not give Gp IIB/IIIA receptor blockers before coronary
anatomy is known.
Antithrombins
Unfractionated heparin (UFH) is an indirect inhibitor of thrombin,
which in combination with ASA is used as an adjunct with
ﬁbrinolytic therapy or PPCI and is an important part of treatment
of unstable angina and STEMI. Alternatives are characterised
by a more speciﬁc factor Xa activity (low molecular weight heparins
[LMWH], fondaparinux) or are direct thrombin inhibitors
(bivalirudin). Rivaroxaban, apixaban and other oral direct thrombin
antagonists may have an indication after stabilisation in speciﬁc
patient groups but not in the initial treatment of ACS.792 Details on
the use of antithrombins are given in Section 8 Initial Management
of Acute Coronary Syndromes.7
Reperfusion strategy in patients presenting with STEMI
Reperfusion therapy in patients with STEMI is the most important
advance in the treatment of myocardial infarction in the last 30
years. Reperfusion may be achieved with ﬁbrinolysis, with PPCI, or
a combination of both. Efﬁcacy of reperfusion therapy is profoundly
dependent on the time interval from symptom onset to reperfusion.
Fibrinolysis is effective speciﬁcally in the ﬁrst 2–3 h after symptom
onset; PPCI is less time sensitive.
K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80 53
Fig. 1.34. Treatment algorithm for acute coronary syndromes; ECG, electrocardiogram; SBP, systolic blood pressure; STEMI, ST-elevation myocardial infarction; non-STEMIACS,
non-ST-elevation acute coronary syndrome; PCI, percutaneous coronary intervention.
Fibrinolysis
Giving ﬁbrinolytics to out-of-hospital to patients with STEMI or
signs and symptoms of an ACS with presumed new LBBB is beneﬁcial.
The efﬁcacy is greatest early after onset of symptoms. Patients
with symptoms of ACS and ECG evidence of STEMI (or presumably
new LBBB or true posterior infarction) presenting directly to the
ED should be given ﬁbrinolytic therapy as soon as possible unless
there is timely access to PPCI. The real advantage of prehospital
ﬁbrinolysis is where there are long transport times, i.e. >30–60 min.
Healthcare professionals who give ﬁbrinolytic therapy must be
aware of its contraindications and risks. Patients with large AMIs
(e.g. indicated by extensive ECG changes) are likely to gain most
from ﬁbrinolytic therapy. Beneﬁts of ﬁbrinolytic therapy are less
impressive in inferior wall infarctions than in anterior infarctions.
Primary percutaneous intervention
Coronary angioplasty with or without stent placement has
become the ﬁrst-line treatment for patients with STEMI. PPCI performed
with a limited delay to ﬁrst balloon inﬂation after ﬁrst
medical contact, at a high-volume centre, by an experienced operator
who maintains an appropriate expert status, is the preferred
treatment as it improves morbidity and mortality as compared with
immediate ﬁbrinolysis.793
Fibrinolysis versus primary PCI
Primary PCI has been limited by access to catheter laboratory
facilities, appropriately skilled clinicians and delay to ﬁrst
balloon inﬂation. Fibrinolysis therapy is a widely available reperfusion
strategy. Both treatment strategies are well established
and have been the subject of large randomised multicentre trials
over the last decades. Time from onset of symptoms and PPCI
related delay (diagnosis to balloon interval minus the diagnosis
to needle interval) are key in selecting the most appropriate
revascularisation strategy. Fibrinolytic therapy is most effective in
patients presenting within 2–3 h from onset of ischaemic symptoms.
It compares favourably with PPCI when started within 2 h
from symptom onset and is combined with rescue or delayed PCI. In
early presenters, patients of younger age and large anterior infarctions,
PPCI related delays of 60 min may be unacceptable while
in late presenters (>3 h from the onset of symptoms) PPCI related
delays of up to 120 min may be acceptable.794
Improving the systems of care may signiﬁcantly shorten time
delay to PPCI795,796:
• A pre-hospital ECG should be acquired as soon as possible and
interpreted for the diagnosis of STEMI. This can reduce mortality
in both patients planned for PPCI and ﬁbrinolytic therapy.
• STEMI recognition may be accomplished by ECG transmission or
onsite interpretation by physicians, or highly trained nurses or
paramedics, with or without the aid of computer ECG interpreta-
tion.
• When PPCI is the planned strategy, pre-hospital activation of
catheterisation laboratory for PPCI will contribute to a mortality
beneﬁt.797
Additional elements for an effective system of care include:
• Requiring the catheterisation laboratory to be ready within
20 min available 24/7.
• Providing real-time data feedback on the real time course from
symptom onset to PCI
For those patients with a contraindication to ﬁbrinolysis, PCI
should still be pursued despite the delay, rather than not providing
reperfusion therapy at all. For those STEMI patients presenting
in shock, primary PCI (or coronary artery bypass surgery) is the
54 K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80
preferred reperfusion treatment. Fibrinolysis should only be considered
if there is a substantial delay to PCI.
Triage and inter-facility transfer for primary PCI
The majority of patients with an ongoing STEMI will be ﬁrst
diagnosed either in the pre-hospital environment or in the setting
of the ED of a non-PCI capable hospital. When PCI can be performed
within a time limit of 60–90 min, then direct triage and
transport for PCI is preferred to pre-hospital ﬁbrinolysis.797–801 For
adult patients presenting with STEMI in the ED of a non-PCI capable
hospital emergent transfer without ﬁbrinolysis to a PCI centre
should be considered provided that PPCI can be performed within
acceptable time delays.
It is less clear whether immediate ﬁbrinolytic therapy (in- or
out-of-hospital) or transfer for PPCI is superior for younger patients
presenting with anterior infarction and within a short duration
of <2–3 h.794 Transfer of STEMI patients for PPCI is reasonable for
those presenting more than 3 h but less than 12 h after the onset of
symptoms, provided that the transfer can be achieved rapidly.
Combination of ﬁbrinolysis and percutaneous coronary
intervention
Fibrinolysis and PCI may be used in a variety of combinations
to restore and maintain coronary blood ﬂow and myocardial
perfusion. Routine immediate angiography post ﬁbrinolytic therapy
is associated with increased ICH and major bleeding without
offering any beneﬁt in terms of mortality or reinfarction.802–806
It is reasonable to perform angiography and PCI in patients with
failed ﬁbrinolysis according to clinical signs and/or insufﬁcient
ST-segment resolution.807 In case of clinically successful ﬁbrinolysis
(evidenced by clinical signs and ST-segment resolution
>50%), angiography delayed by several hours after ﬁbrinolysis (the
pharmaco-invasive approach) has been shown to improve outcome.
This strategy includes early transfer for angiography and PCI
if necessary after ﬁbrinolytic treatment.
Special situations
Cardiogenic shock. Acute coronary syndrome (ACS) is the most
common cause of cardiogenic shock, mainly through a large zone
of myocardial ischaemia or a mechanical complication of myocardial
infarction. Although uncommon, the short-term mortality of
cardiogenic shock is up to 40%808 contrasting with a good quality
of life in patients discharged alive. An early invasive strategy
(i.e. primary PCI, PCI early after ﬁbrinolysis) is indicated for those
patients who are suitable for revascularisation.809 Observational
studies suggest that this strategy could be also beneﬁcial in elderly
patients (over 75 years). Even if commonly used in clinical practice,
there is no evidence supporting the use of IABP in cardiogenic
shock.808
Suspect right ventricular infarction in patients with inferior
infarction, clinical shock and clear lung ﬁelds. ST segment elevation
≥1 mm in lead V4R is a useful indicator of right ventricular infarction.
These patients have an in-hospital mortality of up to 30% and
many beneﬁt greatly from reperfusion therapy. Avoid nitrates and
other vasodilators, and treat hypotension with intravenous ﬂuids.
Reperfusion after successful CPR. The invasive management of
patients with return of spontaneous circulation (ROSC) after cardiac
arrest (i.e. early coronary angiography (CAG) followed by
immediate PCI if deemed necessary), particularly patients after prolonged
resuscitation and having nonspeciﬁc ECG changes, has been
controversial due to the lack of speciﬁc evidence and signiﬁcant
implications on resource utilisation (including transfer of patients
to PCI centres).
PCI following ROSC with ST-elevation. The highest prevalence
of acute coronary lesion is observed in patients with ST segment
elevation (STE) or left bundle branch block (LBBB) on post-ROSC
electrocardiogram (ECG). There is no randomised study but as many
observational studies reported a beneﬁt regarding survival and
neurological outcome, it is highly probable that this early invasive
management is a strategy associated with a clinically relevant beneﬁt
in patients with ST segment elevation. A recent meta-analysis
indicates that early angiography is associated with reduction of
hospital mortality [OR 0.35 (0.31–0.41)] and increased neurologically
favourable survival [OR 2.54 (2.17–2.99)].797
Based on the available data, emergent cardiac catheterisation
lab evaluation (and immediate PCI if required) should be performed
in selected adult patients with ROSC after OHCA of suspected cardiac
origin with ST segment elevation on ECG.810
Observational studies also indicate that optimal outcomes after
OHCA are achieved with a combination of targeted temperature
management and PCI, which can be combined in a standardised
post-cardiac-arrest protocol as part of an overall strategy to
improve neurologically intact survival in this patient group.
PCI following ROSC without ST-elevation. In patients with ROSC
after cardiac arrest but without ST elevation, data are conﬂicting
regarding the potential beneﬁt of an emergent cardiac catheterisation
lab evaluation, all coming from observational studies,410,412
or subgroup analysis.413 It is reasonable to discuss an emergent
cardiac catheterisation lab evaluation after ROSC in patients with
the highest risk of coronary cause of CA. A variety of factors such
as patient age, duration of CPR, haemodynamic instability, presenting
cardiac rhythm, neurologic status upon hospital arrival, and
perceived likelihood of cardiac aetiology can inﬂuence the decision
to undertake the intervention. In patients who present in a nonPCI
centre transfer for angiography and PPCI if indicated should be
considered on an individual basis, weighing the expected beneﬁts
from early angiography against the risks from patient transport.
First aid
First aid is deﬁned as the helping behaviours and initial care
provided for an acute illness or injury. First aid can be initiated by
anyone in any situation. A ﬁrst aid provider is deﬁned as someone
trained in ﬁrst aid who should:
• recognise, assess and prioritise the need for ﬁrst aid
• provide care using appropriate competencies
• recognise limitations and seek additional care when needed
The goals of ﬁrst aid are to preserve life, alleviate suffering,
prevent further illness or injury, and promote recovery. This 2015
deﬁnition for ﬁrst aid, as created by the ILCOR First Aid Task Force,
addresses the need to recognise injury and illness, the requirement
to develop a speciﬁc skill base and the need for ﬁrst aid providers
to simultaneously provide immediate care and to activate emergency
medical services or other medical care as required.811 First
aid assessments and interventions should be medically sound and
based on scientiﬁc evidence-based medicine or, in the absence of
such evidence, on expert medical consensus. The scope of ﬁrst aid
is not purely scientiﬁc, as both training and regulatory requirements
will inﬂuence it. Because the scope of ﬁrst aid varies between
countries, states and provinces, the guidelines contained herein
may need to be reﬁned according to circumstances, need, and regulatory
constraints.
First aid for medical emergencies
Positioning of a breathing but unresponsive victim
Several different side-lying recovery positions have been compared
but overall no signiﬁcant differences between the positions
have been identiﬁed.812–814
K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80 55
Position individuals who are unresponsive but breathing normally
into a lateral, side-lying recovery position as opposed to
leaving them supine (lying on back). In certain situations such as
resuscitation-related agonal respirations or trauma, it may not be
appropriate to move the individual into a recovery position.
Optimal position for a shock victim
Place individuals with shock into the supine (lying on back) position.
Where there is no evidence of trauma use passive leg raising to
provide a further transient improvement in vital signs815–817; the
clinical signiﬁcance of this transient improvement is uncertain.
Oxygen administration for ﬁrst aid
There are no direct indications for the use of supplemental oxygen
by ﬁrst aid providers.818–821 Supplemental oxygen might have
potential adverse effects that complicate the disease course or even
worsen clinical outcomes. If used, supplemental oxygen should be
administered only by ﬁrst aid providers who have been properly
trained in its use and if they can monitor its effects.
Bronchodilator administration
The administration of a bronchodilator in asthma has been
shown to decrease the time to resolution of symptoms in children
and to reduce the time for the subjective improvement of
dyspnoea in young adult asthma sufferers.822,823 Assist individuals
with asthma who are experiencing difﬁculty in breathing with their
bronchodilator administration. First aid providers must be trained
in the various methods of administering a bronchodilator.824–826
Stroke recognition
Stroke is a non-traumatic, focal vascular-induced injury of the
central nervous system and typically results in permanent damage
in the form of cerebral infarction, intracerebral haemorrhage and/or
subarachnoid haemorrhage.827 Early admission to a stroke centre
and early treatment greatly improves stroke outcome and highlights
the need for ﬁrst aid providers to quickly recognise stroke
symptoms.828,829 There is good evidence that the use of a strokescreening
tool improves the time to deﬁnitive treatment.830–833 Use
a stroke assessment system to decrease the time to recognition and
deﬁnitive treatment for individuals with suspected acute stroke.
First aid providers must be trained in the use of FAST (Face, Arm,
Speech Tool) or CPSS (Cincinnati Pre-hospital Stroke Scale) to assist
in the early recognition of stroke.
Aspirin administration for chest pain
The early administration of aspirin in the pre-hospital environment,
within the ﬁrst few hours of the onset of chest pain
due to suspected myocardial infarction, reduces cardiovascular
mortality.834,835 In the pre-hospital environment, administer
150-300 mg chewable aspirin early to adults with chest pain
due to suspected myocardial infarction (ACS/AMI). There is
a relatively low risk of complications particularly anaphylaxis
and serious bleeding.836–840 Aspirin should not be administered
to patients who have a known allergy or contraindication to
aspirin. Do not administer aspirin to adults with chest pain
of unclear aetiology. The early administration of aspirin should
never delay the transfer of the patient to a hospital for deﬁnitive
care.
Second dose of adrenaline for anaphylaxis
Anaphylaxis is a potentially fatal, allergic reaction that requires
immediate recognition and intervention. Adrenaline reverses the
pathophysiological manifestations of anaphylaxis and remains the
most important drug, especially if it is given within the ﬁrst few
minutes of a severe allergic reaction.287,841,842 In the pre-hospital
setting, adrenaline is administered via preﬁlled auto-injectors,
which contain one dose of 300 ␮g of adrenaline (adult dose) for
intramuscular self-administration or assisted by a trained ﬁrst aid
provider. Administer a second intramuscular dose of adrenaline
to individuals in the pre-hospital environment with anaphylaxis
that has not been relieved within 5–15 minutes by an initial
intramuscular auto-injector dose of adrenaline.843–852 A second
intramuscular dose of adrenaline may also be required if symptoms
re-occur.
Hypoglycaemia treatment
Hypoglycaemia in diabetes patients is usually a sudden and
life-threatening event with the typical symptoms of hunger,
headache, agitation, tremor, sweating, psychotic behaviour (frequently
resembling drunkenness) and loss of consciousness. It is
most important that these symptoms are recognised as hypoglycaemia
as the victim requires rapid ﬁrst aid treatment. Treat
conscious patients with symptomatic hypoglycaemia with glucose
tablets equating to glucose 15–20 g. If glucose tablets are not
available, use other dietary forms of sugar.853–855 If the patient is
unconscious or unable to swallow then oral treatment should be
withheld due to the risk of aspiration, and the emergency medical
services should be called.
Exertion-related dehydration and rehydration therapy
First aid providers are often called upon to assist at
“hydration stations” for sporting events. Use 3–8% oral
carbohydrate–electrolyte (CE) beverages for rehydration of
individuals with simple exercise-induced dehydration.856–864
Alternative acceptable beverages for rehydration include water,
12% CE solution,856 coconut water,857,863,864 2% milk,861 or tea
with or without carbohydrate electrolyte solution added.858,865
Oral hydration may not be appropriate for individuals with severe
dehydration associated with hypotension, hyperpyrexia or mental
status changes. Such individuals should receive care by an
advanced medical provider capable of administering intravenous
ﬂuids.
Eye injury from chemical exposure
For an eye injury due to exposure to a chemical substance,
take immediate action by irrigating the eye using continuous, large
volumes of clean water. Irrigation with large volumes of water was
more effective at improving corneal pH as compared to using low
volumes or saline irrigation.866 Refer the individual for emergency
professional review.
First aid for trauma emergencies
Control of bleeding
Apply direct pressure, with or without a dressing, to control
external bleeding where possible. Do not try to control major external
bleeding by the use of proximal pressure points or elevation
of an extremity. However it may be beneﬁcial to apply localised
cold therapy, with or without pressure, for minor or closed extremity
bleeding.867,868 Where bleeding cannot be controlled by direct
pressure it may be possible to control bleeding by the use of a
haemostatic dressing or a tourniquet (see below).
Haemostatic dressings
Haemostatic dressings are commonly used to control bleeding
in the surgical and military settings especially when the wound
is in a non-compressible area such as the neck, abdomen, or
groin.869–873 Use a haemostatic dressing when direct pressure cannot
control severe external bleeding or the wound is in a position
where direct pressure is not possible.874–877 Training is required to
ensure the safe and effective application of these dressings.
56 K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80
Use of a tourniquet
Haemorrhage from vascular injured extremities may result
in life-threatening exsanguination and is one of the leading
causes of preventable death on the battleﬁeld and in the civilian
setting.878,879 Tourniquets have been used in military settings for
severe external limb bleeding for many years.880,881 The application
of a tourniquet has resulted in a decrease in mortality.880–889 Use
a tourniquet when direct wound pressure cannot control severe
external bleeding in a limb. Training is required to ensure the safe
and effective application of a tourniquet.
Straightening an angulated fracture
Fractures, dislocations, sprains and strains are extremity injuries
commonly cared for by ﬁrst aid providers. Do not straighten an
angulated long bone fracture.
Protect the injured limb by splinting the fracture. Realignment
of fractures should only be undertaken by those speciﬁcally trained
to perform this procedure.
First aid treatment for an open chest wound
The correct management of an open chest wound is critical,
as the inadvertent sealing of these wounds by the incorrect use
of occlusive dressings or device or the application of a dressing
that becomes occlusive may result in the potential life-threatening
complication of a tension pneumothorax.890 Leave an open chest
wound exposed to freely communicate with the external environment
without applying a dressing, or cover the wound with a
non-occlusive dressing if necessary. Control localised bleeding with
direct pressure.
Spinal motion restriction
In suspected cervical spine injury it has been routine to apply
cervical collars to the neck, in order to avoid further injury from
spinal movement. However, this intervention has been based on
consensus and opinion rather than on scientiﬁc evidence.891,892
Furthermore, clinically signiﬁcant adverse effects such as raised
intracranial pressure have been shown to occur following the
application of a cervical collar.893–897 The routine application of
a cervical collar by a ﬁrst aid provider is no longer recommended.
In suspected cervical spine injury, manually support the head in a
position limiting angular movement until experienced healthcare
provision is available.
Recognition of concussion
Although a concussion scoring system would greatly assist ﬁrst
aid providers in the recognition of concussion,898 there is no simple
validated scoring system in use in current practice. An individual
with a suspected concussion should be evaluated by a professional.
Cooling of burns
Immediate active cooling of thermal burns, deﬁned as any
method undertaken to decrease local tissue temperature, is a common
ﬁrst aid recommendation for many years. Cooling thermal
burns will minimise the resulting depth of the burn899,900 and possibly
decrease the number of patients that will eventually require
hospital admission for treatment.901 The other perceived beneﬁts
of cooling are pain relief and reduction of oedema, reduced infection
rates and a faster wound healing process.
Actively cool thermal burns as soon as possible for a minimum
of 10 min duration using water. Care must be taken when cooling
large thermal burns or burns in infants and small children so as not
to induce hypothermia.
Burn dressings
A broad range of burn wound dressings are available,902 but no
scientiﬁc evidence was found to determine which type of dressings,
wet or dry, is most effective. Subsequent to cooling, burns should
be dressed with a loose sterile dressing.
Dental avulsion
Following a fall or accident involving the face, a tooth can be
injured or avulsed. Immediate re-implantation is the intervention
of choice but it is often not possible for ﬁrst aid providers to reimplant
the tooth due to a lack of training or skills in that procedure.
If a tooth cannot be immediately re-implanted, store it in Hank’s
BalancedSaltSolution.If thisis notavailableusePropolis,eggwhite,
coconut water, ricetral, whole milk, saline or Phosphate Buffered
Saline (in order of preference) and refer the individual to a dentist
as soon as possible.
Education in ﬁrst aid
First aid education programmes, public health campaigns
and formal ﬁrst aid training are recommended in order to
improve prevention, recognition and management of injury and
illness.901,903,904
Principles of education in resuscitation
The chain of survival13 was extended to the formula of survival11
because it was realised that the goal of saving more lives relies
not only on solid and high quality science but also on the effective
education of lay people and healthcare professionals.905 Ultimately,
those who are engaged in the care of cardiac arrest victims should
be able to implement resource efﬁcient systems that can improve
survival after cardiac arrest.
Basic level training
Who to train and how to train
Basic life support (BLS) is the cornerstone of resuscitation and
it is well established that bystander CPR is critical to survival
in out-of-hospital cardiac arrests. Chest compressions and early
deﬁbrillation are the main determinants of survival from outof-hospital
cardiac arrest and there is some evidence that the
introduction of training for lay people has improved survival at 30
days and 1 year.906,907
There is evidence that training lay people in BLS is effective
in improving the number of people willing to undertake BLS in a
real situation.908–910 For high-risk populations (e.g. areas where
there is high risk of cardiac arrest and low bystander response),
recent evidence shows that speciﬁc factors can be identiﬁed which
will enable targeted training based on the community’s unique
characteristics.911,912 There is evidence that likely rescuers in
these populations are unlikely to seek training on their own but
that they gain competency in BLS skills and/or knowledge after
training.913–915 They are willing to be trained and are likely to share
training with others.913,914,916–918
One of the most important steps in increasing the rate of
bystander resuscitation and improving survival worldwide is to
educate all school children. This can be achieved easily by teaching
children for just two hours per year, beginning at the age of
12 years old.919 At that age, school children have a positive attitude
towards learning resuscitation and both medical professionals
and teachers require special training to achieve these results with
children.920
It has been shown that well trained EMS dispatchers are able to
improve bystander CPR and patient outcomes.921 However there
are concerns with their ability to recognise cardiac arrest particularly
in relation to agonal breathing.50 Consequently training
of EMS dispatchers should include a focus on the identiﬁcation
and the signiﬁcance of agonal breathing,52 and the importance of
K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80 57
seizures as aspects of cardiac arrest. In addition EMS dispatchers
need to be taught simpliﬁed scripts for instructing bystanders in
CPR.52
BLS/AED curricula should be tailored to the target audience and
kept as simple as possible. Increasing access to different modalities
of training (e.g. the use of digital media, on-line, instructor-led
teaching) and self-directed learning, offer alternative means of
teaching both lay and professional providers. Self-instruction programmes
with synchronous or asynchronous hands-on practice
(e.g., video, DVD, on-line training, computer giving feedback
during training) appear to be an effective alternative to instructorled
courses for laypeople and healthcare providers learning BLS
skills.922–926
All citizens should be taught how to perform chest compressions
as a minimum requirement. Ideally, full CPR skills (compressions
and ventilation using a 30:2 ratio) should be taught to
all citizens. When training is time-limited or opportunistic (e.g.,
EMS telephone instructions to a bystander, mass events, public
campaigns, internet-based viral videos), it should focus on
compression-only CPR. Local communities may want to consider
their approach based on their local population epidemiology, cultural
norms and bystander response rates. For those initially trained
in compression-only CPR, ventilation may be covered in subsequent
training. Ideally these individuals should be trained in
compression-only CPR and then offered training in chest compressions
with ventilation at the same training session. Those
laypersons with a duty of care, such as ﬁrst aid workers, lifeguards,
and carers, should be taught standard CPR i.e. chest compressions
and ventilation.
Most studies show that CPR skills decay within three to six
months after initial training.924,927–930 AED skills are retained
for longer than BLS skills alone.931,932 There is some evidence
that higher frequency, short burst training could potentially
enhance BLS training and reduce skill decay.928,930–932 A systematic
appraisal of the literature determined that audiovisual
feedback devices during resuscitation resulted in rescuers providing
chest compression parameters closer to recommendations but
no evidence was found that this translates into improved patient
outcomes.933
Advanced level training
Advanced level courses cover the knowledge, skills and attitudes
needed to function as part of (and ultimately lead) a resuscitation
team. Supportive evidence has emerged for blended learning
models (independent electronic learning coupled with a reduced
duration instructor-led course). Simulation training is an integral
part of resuscitation training and showed improvement in
knowledge and skill performance compared to training without
simulation.934 Evidence that participants in ALS courses learn more
or better CPR by using high-ﬁdelity manikins is lacking. With this in
mind, high-ﬁdelity manikins can be used but if they are not available,
the use of low-ﬁdelity manikins is acceptable for standard
advanced life support training.
Training of non-technical skills (NTS) including leadership and
team training to improve CPR outcome
An increase in hospital survival from paediatric cardiac arrest
and in surgical patients was found after implementation of team
training programmes.935,936 Resuscitation team performance has
been shown to improve in actual cardiac arrest or simulated inhospital
advanced life support scenarios, when speciﬁc team or
leadership training is added to advanced level courses.937–941 If the
simulated scenario training is followed by debrieﬁng then learning
will occur, as opposed to scenario training without debrieﬁng.942
Studies have failed to show a difference between debrieﬁng with
and without the use of video clips.943,944 There is emerging evidence
that frequent manikin-based refresher training in the form
of low-dose in-situ training may save costs, reduce the total time
for retraining, and it seems to be preferred by the learners.945,946
Refresher training is invariably required to maintain knowledge
and skills; however, the optimal frequency for refresher training is
unclear.945,947–949
Implementation and change management
The formula for survival concludes with ‘local
implementation’.11 The combination of medical science and
educational efﬁciency is not sufﬁcient to improve survival if there
is poor or absent implementation.
Impact of guidelines
In each country, resuscitation practice is largely based on the
implementation of internationally agreed resuscitation guidelines.
Studies about the impact of international resuscitation guidelines
suggest a positive effect on CPR performance,906,950 return
of spontaneous circulation105,906,950–953 and survival to hospital
discharge.105,906,950–954
Use of technology and social media
The prevalence of smartphones and tablet devices has led to the
generation of numerous approaches to implementation through
the use of ‘apps’ and also social media.
Measuring performance of resuscitation systems
As systems evolve to improve the outcomes from cardiac arrest,
we need to accurately assess their impact. Measuring performance
and implementing quality improvement initiatives will further
enhance systems to deliver optimal results.939,955–960
Debrieﬁng after resuscitation in the clinical setting
Feedback to members of an in-hospital cardiac arrest team about
their performance in an actual cardiac arrest (as opposed to the
training environment) can lead to improved outcomes. This can
either be real-time and data-driven (e.g. use of feedback devices on
cardiac compression metrics) or in a structured post-event performance
focused debrieﬁng.939,961
Medical emergency teams (MET) for adults
When considering the chain of survival for cardiac arrest,13
the ﬁrst link is the early recognition of the deteriorating patient
and prevention of cardiac arrest. We recommend the use of a
MET because they have been associated with a reduced incidence
of cardiac/respiratory arrest962–968 and improved survival
rates.963,965–968,962,969 The MET is one part of a rapid response system
(RRS), which includes staff education about the signs of patient
deterioration, appropriate and regular vital signs monitoring of
patients, clear guidance (e.g. via calling criteria or early warning
scores) to assist staff in the early detection of patient deterioration,
a clear uniform system of calling for assistance and a clinical
response to calls for assistance.
Training in resource limited settings
There are many different techniques for teaching ALS and
BLS in resource limited settings. These include simulation, multimedia
learning, self-directed learning, limited instruction, and
58 K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80
self-directed computer-based learning. Some of these techniques
are less expensive and require less instructor resources enabling
wider dissemination of ALS and BLS training.
The ethics of resuscitation and end-of-life decisions
The principle of patient autonomy
Respect for autonomy refers to a physician’s obligation to
respect a patient’s preferences and to make decisions that accord
with a patient’s values and beliefs. Patient-centred healthcare
places the patient at the centre of the decision-making process,
rather than as a recipient of a medical decision. Applying this principle
during cardiac arrest where the patient is often unable to
communicate preferences is challenging.970–973
The principle of beneﬁcence
Beneﬁcence implies that interventions must beneﬁt the patient
after assessing relevant risk and beneﬁt. Evidence-based clinical
guidelines exist to assist healthcare professionals in deciding which
treatment approaches are most appropriate.11,974,975
The principle of non-maleﬁcence
CPR has become the norm for most patients with acute,
life-threatening conditions.976,977 CPR is, however, an invasive procedure
with a low likelihood of success. CPR should, therefore, not
be performed in futile cases. It is difﬁcult to deﬁne futility in a way
that is precise, prospective and applicable to the majority of cases.
The principle of justice and equitable access
Justice implies that health resources are distributed equally and
fairly, irrespective of the patient’s social status, in the absence of
discrimination, with the right for each individual to receive the
current standard of care.
Medical futility
Resuscitation is considered futile when the chances of good
quality survival are minimal.978 The decision not to attempt resuscitation
does not require the consent of the patient or of those close
to him, who often have unrealistic expectations.979,980 Decision
makers have a duty to consult the patient or a representative if the
patient lacks capacity, in accordance with a “clear and accessible
policy”.981–983
Some countries allow prospective decisions to withhold CPR
whilst in others countries or religions withholding CPR is not
allowed or considered illegal. There is a lack of consistency in terms
such as ‘do not attempt resuscitation (DNAR)’, ‘do not attempt
cardiopulmonary resuscitation (DNACPR)’ or ‘allow natural death
(AND)’. This confusing use of acronyms may generate misunderstandings
in national legislation and jurisdiction.984,985
Advance directives
Advance directives are decisions about treatment provided
prospectively by an individual in case they are unable to participate
directly in medical decision-making at some point in the future.986
Periodic reviews of directives are required to ensure patients’ current
wishes and circumstances are accurately reﬂected.979,987,988
The legal status of advance directives in the national legislation
of European countries is very disparate.989
Patient-centred care
The increasing centricity of the patient within healthcare
demands that we seek to understand the perspective of the survivor
of cardiac arrest. This requires a further commitment to work
together with the public, with the survivors of cardiac arrest and
their families as partners in this process.990
In-hospital cardiac arrest
Following in-hospital cardiac arrest (IHCA), the default position
is to start resuscitation unless a decision was made to withhold CPR.
Resuscitation decisions should be reviewed. Determining when
CPR is likely to be unsuccessful or futile, is difﬁcult. Prediction studies
are particularly dependent on system factors such as time to
start of CPR and time to deﬁbrillation. The total study cohort but
may not be applicable to an individual case. Decisions should not be
made based on a single element, such as age.991 There will remain
grey areas where judgement is required for individual patients.
Out-of-hospital cardiac arrest
The decision to start or discontinue CPR is challenging outside
a hospital because of the lack of sufﬁcient information about
a patient’s wishes and values, comorbidities and baseline health
status.992,993
Withholding or withdrawing CPR
Transport to hospital with ongoing CPR
Healthcare professionals should consider withholding or withdrawing
CPR in children and adults when:
• the safety of the provider can no be assured;
• there is obvious mortal injury or irreversible death;
• a valid advance directive becomes available;
• there is other strong evidence that further CPR would be against
patient’s values and preferences or is considered futile;
• asystole for more than 20 min despite ongoing ALS, in the absence
of a reversible cause.
After stopping CPR, the possibility of ongoing support of the circulation
and transport to a dedicated centre with the perspective
of organ donation should be considered.
Healthcare professionals should consider transport to hospital
with ongoing CPR when, in the absence of the above CPR withdrawal
criteria, there is one or more of the following present:
• EMS witnessed arrest
• ROSC at any moment
• VT/VF as presenting rhythm
• Presumed reversible cause (e.g. cardiac, toxic, hypothermia)
This decision should be considered early in the process e.g. after
10 min of ALS without ROSC and in view of the circumstances e.g.
distance, CPR delay and presumed CPR quality in view of patient
characteristics
Paediatric cardiac arrest
Despite differences in pathophysiology and aetiology, the ethical
framework for decision-making in paediatric cardiac arrest does
not differ much.
In most countries, legal authorities are involved in cases of sudden
unexplained or accidental death. In some countries systematic
K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80 59
review of all child deaths is organised to get a better understanding
and knowledge for the prevention of future children’s deaths.994
Provider safety
Infectious disease epidemics have raised concerns about the
safety of healthcare providers involved in the care of cardiac arrest
patients. When attempting CPR in infectious patients healthcare
professionals must use proper protective equipment and be sufﬁciently
trained in its use.995,996
Organ donation
The primary goal of resuscitation is to save the patient’s life.997
Nonetheless, resuscitation efforts may result in brain death. In these
cases, the aim of resuscitation could change to the preservation of
organs for possible donation.998 The duty of resuscitation teams for
the living patient should not be confused with the duty of physicians
for the dead donors, where the organs are preserved to save
other people’s lives. All European countries should enhance their
efforts to maximise the possibility of organ donation from cardiac
arrest patients who became brain dead or after stopping resuscitation
in case of CPR failure.999
Variability in ethical CPR practices in Europe
Representatives of 32 European countries where the activities of
the European Resuscitation Council are organised, have responded
to questions regarding local ethical legislation and practice of
resuscitation, and organisation of out-of-hospital and in-hospital
resuscitation services. Equal access to emergency care and to early
deﬁbrillation is now well established. The principle of patient
autonomy is now legally supported in the majority of countries.
However in less than half the countries are family members usually
allowed to be present during CPR. At this time euthanasia
and physician-assisted suicide are controversial subjects in many
European countries and the discussion is ongoing in several European
countries. Healthcare professionals should know and apply
the established national and local legislation and policies.
Family presence during resuscitation
The ERC supports relatives being offered the choice of being
present during a resuscitation attempt whilst cultural and social
variations must be understood and appreciated with sensitivity.
DNAR decisions and discussions relating to DNAR should be
recorded clearly in the patient’s notes.1001–1004 Over time the situation
or the perspectives of patients might change and DNAR orders
should be revised accordingly.1005
Training health care professionals about DNAR issues
Healthcare professionals should receive training about the legal
and ethical basis of DNAR decisions and about how to communicate
effectively with patients, relatives or next of kin. Quality of life,
supportive care and end-of-life decisions need to be explained as
an integrative part of the medical and nursing practice.1006
Practicing procedures on the recently dead
As there is wide diversity in opinion about practicing procedures
on the recently dead, healthcare students and teaching professionals
are advised to learn and follow the established legal, regional
and local hospital policies.
Research and informed consent
Research in the ﬁeld of resuscitation is necessary to test commonly
interventions with uncertain efﬁcacy or new potentially
beneﬁcial treatments.1007,1008 To include participants in a study,
informed consent must be obtained. In emergencies, there is
often insufﬁcient time to obtain informed consent. Deferred consent
or exception to informed consent with prior community
consultation, are considered ethically acceptable alternatives for
respecting autonomy.1009,1010 Following 12 years of ambiguity, a
new European Union (EU) Regulation permitting deferred consent
is expected to harmonise and foster emergency research across
Member States.1008,1009,1011,1012
Audit of in-hospital cardiac arrests and registry analyses
Local CPR management can be improved through post-CPR
debrieﬁng to ensure a PDCA (plan-do-check-act) circle of quality
improvement. Debrieﬁng enables identiﬁcation of CPR quality
errors and prevents their repetition.939,961,1013 Resuscitation teambased
infrastructure and multilevel institutional audit,1014 accurate
reporting1015 of resuscitation attempts at national audit level
and/or multinational registry level, and subsequent data analysis
and feedback from reported results may contribute to continuous
improvement of in-hospital CPR quality and cardiac arrest
outcomes.362,1016–1019
Conﬂict of interest policy for the 2015 ERC Guidelines
All authors of these ERC Guidelines 2015 have signed COI declarations
(Appendix 2).
Acknowledgements
Many individuals have supported the authors in the preparation
of these guidelines. We particularly thank An De Waele, Annelies
Pické, Hilary Phelan and Bart Vissers from the ERC Ofﬁce for their
administrative support and for co-ordinating much of the work on
the algorithms and on the illustrations. We are also indebted to
Rosette Vanlangendonck and to Luke Nolan for their contribution
to editing the references.
Appendix 1. The ERC Guidelines 2015 Writing Group.
Gamal Eldin Abbas Khalifa, Annette Alfonzo, Hans-Richard
Arntz, Helen Askitopoulou, Abdelouahab Bellou, Farzin Beygui,
Dominique Biarent, Robert Bingham, Joost J.L.M. Bierens, Bernd
W. Böttiger, Leo L. Bossaert, Guttorm Brattebø, Hermann Brugger,
Jos Bruinenberg, Alain Cariou, Pierre Carli, Pascal Cassan,
Maaret Castrén, Athanasios F. Chalkias, Patricia Conaghan, Charles
D. Deakin, Emmy D.J. De Buck, Joel Dunning, Wiebe De Vries,
Thomas R. Evans, Christoph Eich, Jan-Thorsten Gräsner, Robert
Greif, Christina M. Hafner, Anthony J. Handley, Kirstie L. Haywood,
Silvija Hunyadi-Antiˇcevi´c, Rudolph W. Koster, Anne Lippert, David
J. Lockey, Andrew S. Lockey, Jesús López-Herce, Carsten Lott, Ian
K. Maconochie, Spyros D. Mentzelopoulos, Daniel Meyran, Koenraad
G. Monsieurs, Nikolaos I. Nikolaou, Jerry P. Nolan, Theresa
Olasveengen, Peter Paal, Tommaso Pellis, Gavin D. Perkins, Thomas
Rajka, Violetta I. Raffay, Giuseppe Ristagno, Antonio RodríguezNú˜nez,
Charles Christoph Roehr, Mario Rüdiger, Claudio Sandroni,
Susanne Schunder-Tatzber, Eunice M. Singletary, Markus B. Skrifvars,
Gary B. Smith, Michael A. Smyth, Jasmeet Soar, Karl-Christian
Thies, Daniele Trevisanuto, Anatolij Truhláˇr, Philippe G. Vandekerckhove,
Patrick Van de Voorde, Kjetil Sunde, Berndt Urlesberger,
Volker Wenzel, Jonathan Wyllie, Theodoros T. Xanthos, David A.
Zideman.
60 K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80
Appendix 2. Conﬂicts of interest
Author Section number Guideline Declared conﬂict of interest
Koen Monsieurs Section 1 Executive
summary
No conﬂict of interest reported
Jerry P. Nolan Editor-in-Chief Resuscitation
Leo Bossaert No conﬂict of interest reported
Robert Greif Editor Trends in Anesthesia and Critical Care
Ian Maconochie No conﬂict of interest reported
Nikolaos Nikolaou Research grant Fourier trial-AMGEN
Gavin D. Perkins Editor Resuscitation
Jasmeet Soar Editor Resuscitation
Anatolij Truhlar No conﬂict of interest reported
Jonathan Wyllie No conﬂict of interest reported
David Zideman No conﬂict of interest reported
Gavin D. Perkins Section 2 Adult basic life
support and
automated
external
deﬁbrillation
Editor Resuscitation
Anthony J. Handley Medical advisor BA, Virgin, Places for people,
Life saving Societies, Trading Company
Secretary RCUK
Giuseppe Ristagno Expert advice ZOLL: ECG interpretation
Jan-Thorsten Grasner No conﬂict of interest reported
Jasmeet Soar Editor Resuscitation
Koen Monsieurs No conﬂict of interest reported
Maaret Castren Medical advisory Board Falck Foundation
Michael Smyth No conﬂict of interest reported
Ruud Koster Medical advisor Physio Control and HeartSine;
Research grants Physio Control, Philips, Zoll,
Cardiac Science, Deﬁbtech, Jolife
Theresa Mariero
Olasveengen
No conﬂict of interest reported
Violetta Raffay No conﬂict of interest reported
Volker Wenzel Research grants, Medical advisor, Speakers
honorarium “AOP Orphan” Pharma
Jasmeet Soar Section 3 Adult advanced life
support
Editor Resuscitation
Bernd Böttiger No conﬂict of interest reported
Carsten Lott No conﬂict of interest reported
Charles Deakin Director Prometheus Medical Ltd
Claudio Sandroni No conﬂict of interest reported
Gavin D. Perkins Editor Resuscitation
Gary B. Smith The Learning Clinic company (VitalPAC):
research advisor, family shareholder
Jerry P. Nolan Editor-in-Chief Resuscitation
Kjetil Sunde No conﬂict of interest reported
Markus Skrifvars No conﬂict of interest reported
Pierre Carli No conﬂict of interest reported
Thomas Pellis Speakers honorarium BARD Medica
Anatolij Truhlar Section 4 Cardiac arrest in
special
circumstances
No conﬂict of interest reported
Annette Alfonzo No conﬂict of interest reported
Carsten Lott No conﬂict of interest reported
Charles D. Deakin Director Prometheus Medical Ltd
Claudio Sandroni No conﬂict of interest reported
David A. Zideman No conﬂict of interest reported
David J. Lockey No conﬂict of interest reported
Gamal Eldin Abbas Khalifa No conﬂict of interest reported
Gavin D. Perkins Editor Resuscitation
Guttorm Brattebo Chair BEST foundation
Hermann Brugger Medical advisor EURAC/ICAR alpine medicine
Jasmeet Soar Editor Resuscitation
Jerry P. Nolan Editor-in-Chief Resuscitation
Joel Dunning Speakers honorarium CARDICA
Joost J.L.M. Bierens Board member/Advisor KNRM; KNRD; Life
Saving societies
K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80 61
Author Section number Guideline Declared conﬂict of interest
Karl-Christian Thies Chair European Trauma Course Organisation ETCO
Peter Paal Speakers honorarium Vidacare, Zoll
Ruud Koster Medical advisor Physio Control and HeartSine; Research
grants Physio Control, Philips, Zoll, Cardiac Science,
Deﬁbtech, Jolife
Silvija Hunyadi-Anticevic No conﬂict of interest reported
Jerry P. Nolan Section 5 Post-resuscitation
care
Editor-in-Chief Resuscitation
Alain Cariou Speakers honorarium BARD-France
Bernd Böttiger No conﬂict of interest reported
Charles Deakin Director Prometheus Medical Ltd
Claudio Sandroni No conﬂict of interest reported
Hans Friberg Speakers honorarium Bard Medical-Natus Inc
Jas Soar Editor Resuscitation
Kjetil Sunde No conﬂict of interest reported
Tobias Cronberg No conﬂict of interest reported
Veronique Moulaert No conﬂict of interest reported
Ian Maconochie Section 6 Paediatric life
support
No conﬂict of interest reported
Antonio Rodriguez-Nunez No conﬂict of interest reported
Christoph Eich No conﬂict of interest reported
David Zideman No conﬂict of interest reported
Dominique Biarent Board member SME “Souvez mon Enfant” charity
Jesus Lopez-Herce No conﬂict of interest reported
Patrick Van de Voorde No conﬂict of interest reported
Robert Bingham No conﬂict of interest reported
Thomas Rajka No conﬂict of interest reported
Jonathan Wyllie Section 7 Resuscitation and
support of
transition of babies
at birth
No conﬂict of interest reported
Berndt Urlesberger No conﬂict of interest reported
Charles Christoph Rohr Educational grant Fischer&Paykel and Medical advisor
STEPHAN company
Daniele Trevisanuto No conﬂict of interest reported
Jos Bruinenberg No conﬂict of interest reported
Mario Rüdiger Speakers honorarium Chiesi, Lyomark; Research grant SLE
device
Nikolaos Nikolaou Section 8 Initial management
of acute coronary
syndromes
Research grant Fourier trial-AMGEN
Abdel Bellou No conﬂict of interest reported
Alain Cariou Speakers honorarium BARD-France
Farzin Beygui Speakers honorarium Astra Zeneca, Lilly, Daichi-Sankyo
Hans-Richard Arntz No conﬂict of interest reported
Leo Bossaert No conﬂict of interest reported
David Zideman Section 9 First aid No conﬂict of interest reported
Anthony J. Handley Medical advisor BA, Virgin, Places for people, Life saving
Societies, Trading Company Secretary RCUK
Christina Hafner No conﬂict of interest reported
Daniel Meyran French Red Cross: Medical advisor
Emmy De Buck Belgian Red Cross-Flanders: employee
Eunice Singletary American Red Cross Advisory Council member
Pascal Cassan French Red Cross Head Global First Aid Defence Center
Philippe Vandekerckhove Red Cross Belgium: employee
Susanne Schunder-Tatzber OMV Austrian Oil&Gas company: Health Manager
Thanos Chalkias No conﬂict of interest reported
Tom Evans No conﬂict of interest reported
Robert Greif Section 10 Principles of
education in
resuscitation
Editor Trends in Anesthesia and Critical Care
Andy Lockey Medical advisor “First on Scene First Aid” company
Anne Lippert No conﬂict of interest reported
62 K.G. Monsieurs et al. / Resuscitation 95 (2015) 1–80
Author Section number Guideline Declared conﬂict of interest
Koen Monsieurs No conﬂict of interest reported
Patricia Conoghan No conﬂict of interest reported
Wiebe De Vries Training organisation ACM employee
Leo Bossaert Section 11 The ethics of
resuscitation and
end-of-life
decisions
No conﬂict of interest reported
Gavin D. Perkins Editor Resuscitation
Helen Askitopoulou No conﬂict of interest reported
Jerry P. Nolan Editor-in-Chief Resuscitation
Kirstie L. Haywood No conﬂict of interest reported
Patrick Van de Voorde No conﬂict of interest reported
Robert Greif Editor Trends in Anaesthesia and Critical Care
Spyros Mentzelopoulos No conﬂict of interest reported
Theodoros Xanthos President Hellenic Society CPR www.ekab.gr, Lab research grants ELPEN Pharma
Violetta Raffay No conﬂict of interest reported
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