GarimaChaudhary79
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About This Presentation
This ppt discusses about cardiac disorders among children.
Size: 740.9 KB
Language: en
Added: Jun 27, 2024
Slides: 97 pages
Slide Content
PAEDIATRIC CARDIAC
DISORDERS
Dealing with a child with cardiac
dysfunction is often disconcerting and
we are often unsure of how to proceed
this lecture aims to provide an overview
of common heart pathology in children
and the physiotherapy management
thereof
Background
Congenital heart defects (CHD) occur in 1% of the live
births (6 of every 1 000)
Most common congenital abnormality seen
Approximately 1/3 of these children will require
surgery, whilst the rest of the cases resolve
spontaneously or are deemed haemodynamically
insignificant
Early surgical intervention is recommended to limit
CVS and neurodevelopmentalcomplications. Most
children are operated on before 1 year of age
Background
Mortality for children with CHD has decreased
significantly ( ≤ 5 %) as a result of medical
and surgical advances, and many of these
children are surviving well into adulthood.
The decreasing mortality rates has resulted in
the shift in focus to the neurodevelopmental
status of these children and ways of
addressing the associated developmental
delays
Background
As PT’s we will encounter children with CHD in
all clinical settings we work in
Acute care setting –pre/postoperatively
Sub-acute care setting in the ward
Out patient department
As PT’s we need to know:
What CHD is
Types of cardiac disorders
How the child’s CVS system is affected during
exercise
Prevalent complications associated CHD
Aetiology
In most cases of CHD the aetiology is multi-
factorial and include
genetic inheritance (patterns not yet clear)
Maternal conditions
Environmental factors
Above factors interact during the first 8-10
weeks of gestation a critical development
phase of the heart
Cardiac Physiology in the
infant
Normal foetal circulation
Foetal heart in not dependant on the lungs for
respiration. Instead the placenta is used for
gaseous exchange.
The R and L ventricles exist in a parallel circuit
Blood travels through the umbilical vein through
the ductusvenosusto the foetal heart via the IVC
to the RA and through the foramen ovaleto the LA
The SVC leads to the RA to the RV to the
pulmonary artery to the lungs or ductusarteriosus
bypassing the lungs into the descending aorta to
perfuse the lower extremities and the body,
travelling back to the placenta via the umbilical
arteries.
Normal foetal circulation
The blood travelling through the left ventricle
to the aorta perfuses the upper extremities and
the brain.
All of the blood flowing through the chambers
of the heart, arteries and veins is rich in
Oxygen
The vessels for pulmonary circulation in the
foetus are vasoconstricted. All blood travelling
in the arteries to the lungs is oxygen rich and
contributes to the nourishment of the lung
tissue
Changes in the circulatory system
at birth
As the baby takes its first breath the lungs expand,
causing the lung P to fall. This allows the blood to
move more easily into the lung.
After reaching the lungs and being oxygenated the
blood is moved to the LA. The P on the L side of the
atrialseptum becomes higher than on the R causing
the foramen ovaleto gradually close (closed by 3/12)
Once the lungs are filled with air and the oxygen level
in the child’s blood rises the muscle wall of the ductus
arteriosuscontracts no longer allowing blood to flow
through the ductus. The ductusarteriosuscloses 10-
15 hours after birth.
Now child has separate oxygenated and de-
oxygenated blood and relies fully on the lungs for
gaseous exchange
Normal circulation after birth
Common heart disease in
children
Congenital heart defects
At any point in the development of the cardiac
system problems can arise leading to
congenital heart disease.
CHD can be classified into two main groups:
Cyanotic lesions ( ↓O
2saturation in the blood)
Acyanoticlesions (O
2saturation unaltered, but
can result in pressure or volume related issued)
Common cardiac conditions seen in children
AcyanoticCongenital Heart
Defects
Classification of Acyanotic
heart lesions
Coarctationof aorta
Pulmonary stenosis obstructive in nature
Aortic stenosis
Patent ductusarteriousus
Atrialseptaldefects
Ventral septaldefects increased pulmonary
bloodflow
Atrioventricularseptaldefects with shunting O
2rich blood
from
left to right
“PINK BABY”
Patent DuctusArteriosus(PDA)
The ductusarterioususis the foetal vascular
connection between the main pulmonary trunk and the
aorta which under normal circumstances closes soon
after birth (usually within the first week of life).
If it stays open excessive blood shunts from the aorta
ton the lungs
Causing pulmonary oedema and in the long run
pulmonary vascular disease
Symptoms may vary from mild to severe depending
on the magnitude of the shunt
Very common in premature infants and may further
complicate weaning from the ventilator and result in
CHF
Patent DuctusArteriosus(PDA)
clinical signs and symptoms of significant PDA
Poor feeding
Failure to thrive (below weight for and height for
age)
Sweating with crying or play
Persistent tachypnoeaor breathlessness
(dyspnoea)
Easy tiring
Tachycardia
Frequent lung infections
A bluish or dusky skin tone
Developmental delay
Patent DuctusArteriosus(PDA)
Patent DuctusArteriosus(PDA)
Management Closing of PDA can be induced
using medication
(indomethacin)
Surgically
Surgical correction is done via a thoracotomy
AtrialSeptalDefect (ASD)
An ASD is an opening or whole in the wall
separating the atria
This permits free communication of blood
between the two atria.
Seen in 10% of all congenital heart disease
Rarely presents with signs of congestive
heart failure or other cardiovascular symptom
Most are asymptomatic but may have easy
fatigability or mild growth failure. The right
atrium and ventricle may enlarge over time
Cyanosis does not occur unless pulmonary
hypertension is present.
AtrialSeptalDefect (ASD)
AtrialSeptalDefect (ASD)
Management:
Surgical or catheterization closure is usually
indicated
Closure is performed electively between ages 2 &
5 yrs if the whole has not closed in order to avoid
late complications. Children may be on
anticoagulant therapy for 6 months to prevent
clotting
Surgical correction is done earlier in children with
congestive heart failure or significant pulmonary
hypertension
VenticularSeptalDefect (VSD)
A VSD is an abnormal opening in the ventricular
septum, which allows free communication
between the right and left ventricles ventricles.
Oxygen rich blood in the left ventricle is then
pumped into the right ventricle through the
opening instead of to the body. In a large VSD
excessive blood is pumped to the lungs resulting
in congestion and shortness of breath.
In return excessive amounts of blood are pumped
back from the lungs to the left heart
overburdening and enlarging it resulting in CHF
VenticularSeptalDefect (VSD)
In case of a small VSD most children are
asymptomatic and 50% will close spontaneously
by age 2yrs
In the case of a moderate or large VSD the child
will be symptomatic. This may include
dyspnoea, feeding difficulties, failure to thrive
recurrent respiratory infections and profuse
sweating
VenticularSeptalDefect (VSD)
VenticularSeptalDefect (VSD)
Management
In case of a small VSD 50% will close
spontaneously
by age 2yrs
Large VSD’s are usually closed surgically
AtrioventricularSeptalDefect
(AVSD)
AVSD results from the incomplete fusion of the
tendocardialcushions, which help to form the
lower portion of the atrialseptum, the
membranous portion of the ventricular septum
and the septalleaflets of the triscupidand mitral
valves.
They account for 4% of all CHD
Commonly associated with chromosomal
disorders Down Syndrome
Clinical findings include CHF in infancy,
recurrent respiratory infections, failure to thrive,
exercise intolerance and easy fatigability.
AtrioventricularSeptalDefect
(AVSD)
AtrioventricularSeptalDefect
(AVSD)
Treatment
Surgery is always required.
Prior to surgery congestive symptoms are
treated.
Pulmonary banding maybe required in
premature infants or infants < 5 kg.
Correction is done during infancy to avoid
irreversible pulmonary vascular disease.
Pulmonary artery banding
The primary is to
reduce excessive
pulmonary blood flow
and protect the
pulmonary
vasculature from
hypertrophy and
irreversible (fixed)
pulmonary
hypertension.
Truncusarteriosus
Defect characterised by a
single arterial trunk arising
from both ventricles from
which the aorta and
pulmonary arteries arise
from a single semi-lunar
valve
Pulmonary hypertensive crisis
Can be a severe complication post operatively
Children at risk of pulmonary hypertension are those
with excessive shunting of blood from left to right e.g.
VSD, AVSD
This results in excessive bloodflowto the lungs
resulting in distension and damage to the pulmonary
artery wall which becomes muscularised
Unable to dilate and vulnerable to reactive
vasoconstriction
Hypoxaemia, hypercapnea, metabolic acidosis as well
as relentless handling (including by the
physiotherapist) and tracheal suctioning may
predispose the child to a hypertensive crisis.
In children at risk physiotherapy should be indicated,
treatment must be quick and effective and vitals need
to be monitored. Effective sedation, paralysis and
additional oxygen may be required to avoid a crisis.
Pulmonary hypertensive crisis
In the case of a crisis the
pulmonary arteries
constrict resulting in an
increase in pulmonary
artery pressure and CVP.
The systemic blood
pressure will drop
suddenly resulting in
cardiac arrest.
Treatment includes
sedation, paralysis and the
administration of Nitric
Oxide and 100% oxygen to
try and facilitate pulmonary
vasodilatation
Obstructive causes of CHD
Coarctationof the aorta
Congenital narrowing of the aorta as it leaves
the heart anywhere from the transverse arch to
the iliac bifurcation.
Resulting in increased pressures in the arteries
nearest the heart, head and arms and
decreased circulation in lower extremities.
7 % of all CHD
Male: Female ratio 3:1
Coarctationof the aorta
This is often not evident in the newborn until
the ductusarteriouscloses causing a
constriction. The blood in the left ventricle has
then to be pumped out against the constriction.
Child presents with symptoms of left
ventricular hypertrophy and left ventricular
failure, with congestive heart failure. Changing
a healthy baby into a baby that has hard
breathing, is sweaty and wheezing.
Coarctationof the aorta
Coarctationof the aorta
Coarctationof the aorta
Management:
With severe coarctationmaintaining the ductuswith
prostaglandin E is essential
Early surgical repair and resection of the stenosis
is imperative
Simple coarctationrepair have a extremely low
mortality but in complex cases mortality might be
higher
A rare complication of surgical repair is paraplegia
(longer cross clamping times during surgery)
In 18% of children undergoing surgery re-
coarctationoccurs
Obstructive causes
Is an obstruction to the
outflow from the left
ventricle at or near the
aortic valve.
Resulting in left
ventricular overload and
hypertrophy
Accounts for 7% of
CHD.
Is obstruction in the
region of either the
pulmonary valve or the
sub-pulmonary
ventricular outflow tract.
Pulmonary circulation
decreased
Work of the RV increased
RV hypertrophy
↓ cardiac output
Accounts for 7-10% of
all CHD.
Aortic Stenosis Pulmonary Stenosis
Obstructive causes
Asymptomatic in mild
cases, in more severe
cases fatigue, syncope
and dyspnoea
Treatment is surgical
repair
Symptoms include
dyspnoea, exercise
intolerance, fatigue CHF
and hypoxaemia
Treatment is surgical
repair
Aortic Stenosis Pulmonary Stenosis
Classification of cyanotic
heart lesions
Cyanotic heart lesions include:
Tetralogyof Fallot
Hypoplastic left heart
Traspositionof the great vessels
Tetralogyof Fallot(TOF)
Most common cyanotic heart lesion
Has 4 components:
A high VSD
Pulmonary stenosis
Anomalous position aorta
RV hypertrophy
Results in a right to left shunttingof blood with low
oxygen levels in the artieiresand in the body tissues
Resulting in cyanosis, easy fatigability, fainting and
shock.
Clubbing may be observed
Tetralogyof Fallot(TOF)
Tetralogyof Fallot(TOF)
Tetralogyof Fallot(TOF)
Early surgical intervention (TOF repair) is
usually required
Palliative care by means of anestomosisand
pulmonary valvotomycan be done
Hypoplastic Left Heart Syndrome
(HLHS)
Most serious congenital heart malformation
with the poorest of prognosis
Means that the left ventricle is extremely small
and the mitral valve and aortic valves may be
missing
Symptoms usually minimal until the ductus
arteriosuscloses causing shock and multi-
organ failure
Hypoplastic Left Heart Syndrome
(HLHS)
Treatment prpstaglandinE
1until surgery
Initial palliative surgeries
Heart transplant is often the suggested option
Hypoplastic Left Heart Syndrome
(HLHS)
Other Congenital Heart
Defects
Transposition of the great
vessels
Aorta arises from the RV and the pulmonary
arteries arise from the LV
The 2 circulations namely the systemic and
pulmonary are in parallel instead of in series
Venous blood circulates around the body and
oxygenated blood around the lungs
May be dyspnoea, cyanosis and syncope
Transposition of the great
vessels
Transposition of the great
vessels
Treatment
Palliative surgeries including pulmonary
banding or atrialseptum excision
Corrective surgery
Non Congenital Heart
Disease
Cardiomyopathy
Primary heart muscle disease
Cardiomyopathyis a chronic and sometimes
progressive disease in which the heart muscle is
abnormally enlarged, thickened and/or stiffened.
The condition typically begins in the walls of the
ventricles and in more severe cases also affects
the walls of atria)
The actual muscle cells as well as the
surrounding tissues of the heart become
damaged.
Hallmark is depressed cardiac functioning.
Eventually, the weakened heart loses the ability to
pump blood effectively and heart failure or
irregular heartbeats (arrhythmias or dysrhythmia)
may occur.
Cardiomyopathy
Cardiomyopathy
"primary cardiomyopathy" where the heart is
predominately affected and the cause may be
due to infectious agents or genetic disorders
"secondary cardiomyopathy" where the heart
is affected due to complications from another
disease affecting the body e.g. HIV, cancer,
muscular dystrophy or cystic fibrosis
Cardiomyopathy
Cardiomyopathycan affect a child at any stage
of their life. It is not gender, geographic, race
or age specific.
Rare disease in infants and young children.
Cardiomyopathycontinues to be the leading
reason for heart transplants in children.
Complications may include arrythmias, heart
block, blood clots, congestive heart faiulure,
endocarditisand sudden death
Organ Transplantation
Heart transplant
Heart transplantation is used only as an option in
end stage heart failure in children with heart
defects or cardiomyopathiesthat are
unresponsive to surgery or medication
Heart failure may occur in children with CHD post-
operatively due to the nature of their artificial
circulations
Individual units have their own transplant
protocols
A heart transplant presents a ling risk of organ
rejection and infection
The transplant half life of children is estimated at
18 years
Heart transplant
Physiotherapy Assessment
Assessment of the child with
CHD
History
Will need to conduct an interview
with the family:
Children often have a very long and
complicated medical and often
surgical history that has to be well
document
Medications that the child is taking
e.g. blood thinners, and
immunosuppressant drugs
Social, economic and family
circumstsancesneed to be
determined (CHF highly stressful to
the family unit-high divorce rate)
Developmental history –these
children often present with
developmental delays
Is child receiving any early
intervention services e.g.
physio/OT
Child’s general health
Sleeping patterns’
Current and previous level of
functioning
ADL –if child of schoolgoingage
is he attending school.
What is their chief complaint with
the child:
Most common complaint from
parent with children awaiting
surgery is failure to thrive and
poor feeding. I
In older children it is often
lethargy, fatigue
Assessment of the child with
CHD
Interview with paediatric
cardiologist
Nature of the CHD
Intervention and treatment
planning
Precautions
Need for physiotherapeutic
intervention
Assessment of the child with
heart disease
Oxygenation –laboratory
results
Arterial blood gas values
and saturation monitor
reading are incredibly
important when assessing
a patient with cardiac
dysfunction
Cyanotic lesions the ABG
may be reduced due to the
mixing of arterial and
venous blood
Vital sign parameters
The following reading need
to be taken manually or
read off the monitor HR,
RR, BP prior to your
assessment to serve as
baseline values
Important to retake vital
signs during assessment
and after as well
Assessment of the child
with heart disease
PaO
2
60-80 mmHg
= SaO2 90-95%
PaO
2
40-60 mmHg
= SaO2 60-90%
Mild hypoxaemia
PaO2 ≤
40 mmHg
= SaO2 ≤ 60%
Severe
hypoxaemia
Assessment of the child with
heart disease
General observations
Child’s LOC –is he sedated,
on a neuromuscluarblocker
(paralysis) in children where
any movement or position
changing has a negative
impact on the CVS function)
Equipment and indwelling
devices
Pain
Integrity of the skin
Surgical sites and wounds
e.g. sternotomy/
thoracotomy
Clubbing
Oedema
Capillary refill
Cyanosis central and
peripheral
Assessment of the child with
heart disease
Respiratory system
Chest shape
Chest deformities
Chest expansion
Thoracic mobility;
flexion, extension, lateral
flexion, rotation
Breathing pattern
Shoulder girdle tightness
and mobility
Shortness of breath
(tachypnoea)
Dyspnoea and grade
Cough
Sputum
Auscultation
If ventilated –ventilator
settings
Assessment of the child with
heart disease
Musculoskeletal
system
Posture
ROM
Muscle strength
Functional ability &
ADL
Functional and ADL
tasks appropriate for
age need to be
assessed in line with
the child’s condition
Assessment of the child with
heart disease
Aerobic capacity,
endurance and
exercise tolerance
In younger children
observe during
activity and play-
monitor HR
In older child can do
the 6 min. walk test
Shortness of breath
can objectively be
monitored through
the ventilatoryindex
in older children
Can also use the
dyspnoea index or
Borg scale but it is
often subjective and
difficult in children
Ventilatory index
child must inhale deeply and count to 15 (8 seconds)
0
•Count aloud to 15 without taking a breath
1
•Count aloud to 15 taking 1 breath
2
•Count aloud to 15 taking 2 breaths
3
•Count aloud to 15 taking 3 breaths
4
•Count aloud to 15 taking 4 breaths
Dyspnoea Index
1
•Breathlessness barely noticeable
2
•Breathlessness moderately bothersome
3
•Breathlessness severe and very
uncomfortable
4
•Most severe breathlessness ever
experienced
Borg scale of perceived exertion
6-8•Very, very light
8-10•Very light
10-12•Fairly light
12-14•Somewhathard
14-16•Hard
16-18•Very hard
18-20•Very, very hard
Preoperative physiotherapy
Seeing the child prior to surgery affords the
physiotherapist the opportunity to get to know the
child and their family, makes the post-operative period
far easier.
Provides an opportunity to do a quick respiratory,
developmental and functional assessment
In other cases it might be a child you know well from
previous inpatient/out patient visits to adress
recurrent respiratory tract infections and
neurodevelopmentaldelays
Explain the operation in simple terms and tell him/her
and the parents about the post operative stay in PICU
(lines, ventilator ,ET tubes etc.). Also indicate the
post-operative role of the physiotherapist.
Preoperative physiotherapy
aims
Maintain joint ROM, circulation and function
pre-operatively
Correct posture and positioningin bed
CPT if indicated to clear secretions and
breathing exercises
Teach older child how to cough with
wound/chest support
Maintain functional abilities as cardiovascular
status allows
Postoperative physiotherapeutic
problems
Pain –see child has adequate sedation
Decreased air entry
Retained secretions
Ineffective cough –must cough with wound
support
Reduced UL movements
Decreased mobility
Family and caregiver education
Postoperative physiotherapy
Avoid physiotherapy in the first few hours after
surgery as they are aiming to stabilise the child and
achieve haemodynamicstability
The exception to the rule here may be in the case of
a lobar collapse on the post-operative CXR or poor
ABG. In this case careful physiotherapy is to be
done avoiding any deterioration in haemodynamic
status
Postoperative physiotherapy
When not to treat
Confidence in treating cardiothoracic patient only
comes with experience, but accurate assessment
will reveal the needs of the child:
Treatment should be avoided in the following cases:
Haemodynamicinstability
Tachycardia or bradycardia
Hyper/hyptensive
Child in a pulmonary hypetensivecrisis
Postoperative physiotherapeutic
intervention
Localised breathing exercises if child awake and of
age or tactile neurophysiologicalstimulation
Modified postural drainage positions are used
as the head down position may compromise
cardiac output and diaphragm functioning
Mechanical vibrations, gentle percussions (ensure
adequate analgesia) and suctioning to remove
secretions
Must give chest support when coughing
Bilateral UL mobility above 90 degrees
Correct positioning for ventilation and posture
Intubated in the ICU
Postoperative physiotherapeutic
intervention
Children are usually extubatedquickly unless
underlying lung pathology or secondary infection.
Teach huffing & coughing with chest support
Localised and lateral basal breathing exercises or
can use blowing pin-wheel, bubbles, incentive
spirometry
Manual CPT techniques if indicated
Functional activities e.g. teaching log rolling, coming
up into sitting
Active bed exercise programme
Older child can sit out in a chair in the unit
Extubated in the ICU
Postoperative physiotherapeutic
intervention
Exercise rehabilitation in paediatric patients
Mobilisation can be start once inotropicdrugs
stopped and some of drains removed
Studies in children show an improvement in work
capacity & VO
2max following a 6-8 week
rehabilitation exercise programme
Not much research has been done on rehabilitation
exercise programmes in children
Ward
Postoperative physiotherapeutic
intervention
Exercise rehabilitation in paediatric patients
An at risk group for exercise.....
There is a small population of children who are at
risk of sudden death ( hypertrophic cardiomyopathy,
coronary artery anomalies, MarfanSyndrome, Aortic
valve stenosisand long QT syndrome)with physical
activity and sport participation.
These children need to be identified and restriction
placed on competitive sport and high intensity
physical activity
Ward
Postoperative physiotherapeutic
intervention
Start with activity and endurance training
Allow older child to walk, cycle and stair climb (can be
taught to monitor own HR)
Smaller children uses play and functional activities
Pay attention to the following principles
mode : walking, cycling
Duration (sick children shorter intensity e.g. 3-5 minutes
Frequency (3-5/wk)
Intensity: monitor exhaustion, dyspnoea and HR (not a
rise of ≥ 20 beats)
In older children where stress ECG can be done, the
child can exercise at 60 -65% of maximal HR
Ward
Postoperative physiotherapeutic
intervention
Aerobic and endurance training
Not all patients e.g. Left to right shunt have
impaired exercise tolerance where in some
cases children with cyanotic heart lesions and
severe abnormalities may have impaired
exercise tolerance due to the hypoxemia
Exercise tolerance is also often affected by
recurrent hospitalisations, inactivity and periods
of bed rest
Therefore post operatively there must be a
progressive exercise plan aiming to improve the
child’s cardiovascular fitness and endurance
Ward and out patient basis
Postoperative physiotherapeutic
intervention
Aerobic and endurance training
Over time children that have had a complete defect
repair at an early age should have normal
cardiovascular functioning-with normal age expected
exercise tolerance and endurance
In cases where complete repair was not possible and
cardiac functioning still impaired the child have to
monitor HR and signs of fatigue can aim at improving
endurance and at least maintaining it where possible
Sporting activity in cases of impaired cardiac function
needs to be reviewed by the interdisciplinary team
Ward and out patient basis
Postoperative physiotherapeutic
intervention
Strength training
General strength training may be undertaken
pre-and postoperatively although there is a
6-8 week postoperative restriction on lifting
activities for children
Important that children breathe correctly
during resistance training in order not to
increase the blood pressure
Ward and out patient basis
Postoperative physiotherapeutic
intervention
Neurodevelopmentaloutcomes in children with heart
disease:
CHD often has a significant impact on a child’s
development
Cause of delays are often multifactorial
Child with CHD may have brain insults prior to surgery
due to prolonged hypoxaemia
Studies have found that children with CHD show
delays in all main areas of development as well as
tonal abnormalities (hypotonia), abnormal posture
emotional and behavioural difficulties
Following open heart surgery children may suffer from
mild hypotonia, motor problems and CMD may occur
in 5% of cases.
Ward and out patient basis
Postoperative physiotherapeutic
intervention
Neurodevelopmentaloutcomes in children with heart
disease:
language development also delayed in many cases.
Even at one year after surgery most children were still
behind for age. Delayed gross and fine motor
development also impacted negatively on perceptual
skills.
Children often exhibited behavioural problems and
greater caregiver dependency
Ward and out patient basis
Postoperative physiotherapeutic
intervention
Neurodevelopmentaltherapy
Age appropriate play is an important activity that can
be used in order to get a child to move
In cardiac patient it is often important to then try and
get the child accustomed to prone over towel envenon
a caregivers lap during awake, play time. Prone is an
important developmental position.
Nerodevelopmentalassessment and therapy to aid the
child in catching up on his age appropriate milestones
is often essential post operatively especially in
younger children who were acutely ill and failed to
thrive.
Regular developmental monitoring would also be
recommended
Ward and out patient basis
Family and caregiver support
A family suffers huge amounts of anxiety and
stress in the case of having a child with CHD
The distress, frustration and reaction shown by
the mother may affect the relationship with the
child
Often over-restriction and over-observation of
children with CHD by parents
The child’s reaction and adjustment to their illness
is largely related to the emotional and behavioural
reaction of the family
Physiotherapist can play an important role by
providing support and encouraging more positive
interactions within the family
References
AmmaniPrasad, S. & Main, E. Paediatrics in Physiotherapy
for respiratory and cardiac Problems. Adults and children 4
th
ed. Pryor, J.A. & AmmaniPrasad, S. (eds.)358-363
E-medicine. 2010. pulmonary artery banding.
Available online at:
http://emedicine.medscape.com/article/905353-overview
Hendon. K.L. Not dated. Congenital Heart Disease
(slideshow)
Children’s CardiomyopathyFoundation. 2010. About the
disease.
Available online at:
http://www.childrenscardiomyopathy.org/site/description.php
References
Pepper, J.R.; Anderson, J.M. & Innocenti, D.M. 1992. Cardiac
surgery in Cash’s Textbook of chest, Heart and Vascular
disorders for Physiotherapists. 4
th
ed. Downie, P.A. (ed).
Mosby, londonpp 407-429
Bar-Or, O. & Rowland, T.W. 2004. Cardiovascular disease in
Paediatric exercise medicine. From physiological principles to
healthcare application. Human Kinetics, USA Pp177-217
Brossman, H. 2008. Cardiac disorders in PediatricPhysical
Therapy. 4
th
ed. Telin, J.S. (ed.). Lippincott williamsWilkins,
Baltimore pp 589-609
References
Main, E. 1998. Paediatric Cardiothoracic Surgery in Paediatric
Management in Cardiovascular/Respiratory Physiotherapy.Smith,
M. & Ball,V. (eds.).Mosby, London pp291-298
Image coursteyof GOOGLE images (2010)