04/16/2025 Physical diagnosis1
Dire Dawa University CMHS
Physical diagnosis
For 2nd
year anesthesia students
By Dr. Fikremariam A. MD
2.
Objectives
• Enable youto describe the chest wall anatomy and
identify the key areas for RS and CVS examination.
• Enable you perform basic techniques of respiratory
system and CVS examination
04/16/2025 Physical diagnosis 2
The respiratory Systemexamination
Positioning the patient
If he or she is not acutely ill, the examination is
easiest to perform with the patient sitting over the
edge of the bed or even on a chair.
The patient should be undressed to the waist.
5.
Respiratory System examinationCon…
The cardinal steps of chest examination are
Inspection,
Palpation,
Percussion and
Auscultation
Inspection of theChest
Appearance of the chest/Shape
Bilaterally symmetrical and an elliptical in cross section
Shape of the chest
Kyphosis
Scoliosis
Flattening
Over inflation
Movement of the chest
Symmetry
Observe the chest for –rate and rhythm
-chest expansion
8.
Cyanosis
Look centraland peripheral cyanosis:- over tongue,
lips, other mucous membranes & fingers.
Excessive amount of reduced hemoglobin in capillary
blood.
9.
Clubbing of fingers
Clubbing of fingers is the bulbous
enlargement (like drum stick) of soft parts of
the terminal phalanges due to
an increase in the vascularity of the distal fingers
and consequently an increased sponginess of the
nail beds
with over curving of the nails both transversely
and longitudinally.
10.
Grades of clubbing
Grade I: Spongy, boggy feeling on pressing the nail
bed – (early clubbing)
Grade II: loss of angle at the nail bed >160 i.e. 180 or
more .
Grade III: widening of the distal part of the phalanx,
spooning nail (late clubbing)=drum stick
11.
• Flaring ofala nasi
Flaring of ala nasi is the spreading out of the nostrils
during expiration in children due to respiratory
distress.
• Breathing patterns (rate, rhythm, and depth)
The rate, rhythm, and depth of breathing should be
noted carefully.
a. Rate:- see under vital sign, RR
b. Rhythm of breathing (regular, or irregular)
12.
• Use ofaccessory muscles
Is there use of the neck muscles such as sternomastiod,
scaleni & trapezius muscles for respiration?
The normal muscles of respiration are the diaphragm , the
intercostal muscles and abdominal muscles
Diaphragm descends on inspiration & cause outward
abdominal movement.
Intercostal muscles cause chest expansion on inspiration.
In labored breathing (i.e. in respiratory distress) neck
muscles (accessory muscles of respiration) are recruited to lift
the chest
13.
• Shape ofthe chest wall
Inspect the chest wall for deformities (first the
front of the chest and then the back).
Normal chest wall – is symmetrical and In the infant
or young child, almost round
The transverse diameter increases with age, thus
elliptical in cross section
Abnormalities (deformities) of chest wall includes:
Barrel chest – a persistently round (increased
antero-posterior) diameter of chest wall.
14.
Pigeon chest- is chest wall with prominent sternum
& flat chest (pectus carinatum), is sequel of chronic
respiratory disease in childhood.
Funnel chest - is chest wall with local sternum
depression at lower end (pectus excavatum).
Kyphosis – is forward bending of spines
Scoliosis –is lateral curvature of spines
Harrison's groove–is a horizontal depression along
the lower border of the chest that corresponds with
the costal insertions of the diaphragm.
Rachitic rosaries–is a palpable or visible
costochondral beading
15.
• Symmetry ofchest wall movement
Inspect movements of the two sides & both upper
& lower parts of the chest.
Inspiration normally results in expansion of the
chest wall and depression of the diaphragm.
Normal chest moves symmetrically & equal on both
sides.
Impairment of respiratory movement on one or
both sides or unilateral lag (or delay) in that
movement
16.
• Chest indrowing(retractions)
Retraction (indrowing) of the intercostal spaces,
subcostal, suprasternal, and supraclavicular fossae
during
Inspiration in the present of airway obstruction &
non-compliant lung
• Tenderness
Palpatethe chest wall where patient complains of
pain.
Intercostal tenderness may be due to inflamed
pleura (e.g tuberculosis).
Causes of chest pain & tenderness:
Recent injury of the chest or inflammatory conditions
Intercostal muscular pain
Rib fracture
malignant deposits in the ribs
Herpes zoster before appearance of eruption
Pleurisy (inflammation of pleura
19.
• Position oftrachea
Position of trachea indicates the position of upper
mediastinum.
Normally on midline, may slightly deviates to the right.
Abnormal tracheal deviations
Deviation to same side of the cause (pulled to one side), as in
Lung collapse
Lung fibrosis
Deviation to the opposite side of the cause (pushed to
opposite side) by
Pleural effusion
Pneumothorax
20.
• Tactile fremitus(TF)
TF refers to palpable vibrations transmitted
through the broncho-pulmonary tree from the
larynx to the surface of the chest wall when the
patient speaks.
1. Ask the patient to say the following several
times in a normal voice:
Ninety nine for English speakers
‘arba arat’ for Amharic speakers
21.
Increased TFin
Lung consolidation
Lung fibrosis
Decreased to absent TF when transmission of
vibrations from the larynx to the surface of the chest
is impeded by:
Obstructed bronchus
Chronic obstructive pulmonary disease (COPD)
Separation of the lung from chest wall by:
Pleural air e.g. Pneumothorax
Pleural fluid e.g. pleural effusion, hemothorax
Pleura thickening
22.
• Chest expansion
Place the fingertips of both hands on either side of the
lower rib cage so that the tips of the thumbs meet in
the mid line (done either on anterior or posterior side
of chest), then the patient is asked to breath deeply.
Posteriorly, at the level of and parallel to the 10th ribs.
If one thumb remains closer to the mid line – indicates
that there is diminished expansion of the chest on that
side.
Causes:– see under symmetry of chest movement.
Proper Technique
• Hyperextendthe middle finger of one hand and place
the distal interphalangeal joint firmly against the
patient's chest.
• With the end (not the pad) of the opposite middle
finger, use a quick flick of the wrist to strike first
finger.
Posterior Chest
1. Tell the patient to cross his/her hands in front of their
chest grasping the opposite shoulders so as to pull the
scapulae laterally.
27.
2. Percussfrom side to side and top to bottom using
the pattern shown in the illustration. Omit the areas
covered by the scapulae.
3. Compare one side to the other looking for
asymmetry.
4. Note the location and quality of the percussion
sounds you hear.
5. Find the level of the diaphragmatic dullness on
both sides
28.
The normalpercussion note of underlying
air-containing normal lung field is resonance.
Abnormal percussion notes are:
Hyper resonance – occurs in emphysema (hyper inflated
lung), or Pneumothorax (when pleural cavity is filled with
air)
Dull as in lung consolidation, lung fibrosis, lung collapse,
pleural thickening.
Stony (flat) dullness – is due to fluid or blood in the
pleural cavity as in pleural effusion & hemothorax
29.
Diaphragmatic excursion
• Percussalong the scapular line on one side until the
level of the diaphragmatic dullness.
• Ask the patient to inspire deeply and hold his breath
in.
• Proceed to percuss down from the marked point –to
determine the diaphragmatic excursion in deep
inspiration.
• Repeat the procedure on the opposite side.
• Measure the distance between the upper & lower
points in cm on each side.
• Excursion is normally 3–5cm bilaterally
(symmetrically)
Ask thepatient to breathe (i.e. to let the air into the
lungs & let it out again) while auscultating the chest.
Sequential examination proceeds from one side of
the chest to the other
Comparing breath sounds in anatomically similar
areas of both sides of posterior, lateral & anterior
chest using the pattern shown in the illustration
above.
Omit the areas covered by the scapulae.
32.
• Air entry
Normal
Decreased / absent
Increased
Normal breath sounds are
Vesicular breath sound- Lung tissue;
It is rather quite low-pitched rustling sound without distinct pause (gap) between the end of
the inspiration and the beginning of expiration.
Inspiration phase greater than expiration
Bronchial breath sound- Trachea
It is a harsh, tubular, sound, becomes inaudible just before the end of inspiration, so that
there is a gap before the expiratory sound is heard.
The expiratory sound lasts for most of the expiratory phase
Vesiculo-broncheal breath sound- between the scapula over
main bronchi
33.
Normal air entry- in normal lung
Decreased to absent air entry in
Pleural effusion
Lung collapse
Pneumothorax
Hemothorax
Severe asthma
Major bronchial obstruction
Increased air entry in
Lung consolidation
Lung fibrosis
34.
Bronchial breathsound (BBS) is heard over the
lung fields in
Lung consolidation
Lung fibrosis
Over top of pleural effusion
Amphoric breath sounds
It is a sound heard like that made by blowing over
the mouth of a narrow necked glass e.g. bottle.
It is heard over:
Cavitary lesions
Top of pleural effusion
35.
Decreased orabsent breath sounds can occur in:
Any condition that causes the deposition of foreign
matter (air, fluid, blood) in the pleural space such as
pneumothorax, pleural effusion, hemothorax
Emphysema,
Endobronchial obstruction
36.
Bronchophony
• 1. Askthe patient to say "ninety-nine", or “arba arat”,
several times in a normal voice.
• 2. Auscultate several symmetrical areas over each
lung.
• 3. The sounds you hear should be muffled and
indistinct.
• But if Louder, clearer sounds are called
bronchophony.
37.
Whispered Pectoriloquy
• 1.Ask the patient to whisper "ninety-nine", or
“arba arat”, several times.
• 2. Auscultate several symmetrical areas over
each lung.
• 3. You should hear only faint sounds or
nothing at all.
• If you hear the sounds clearly this is referred
to as
• whispered pectoriloquy.
38.
Egophony
• 1. Askthe patient to say "ee" continuously.
• 2. Auscultate several symmetrical areas over
each lung.
• 3. You should hear a muffled "ee" sound. If
you hear an "ay" sound this is referred to as
"E A" or
→
• Egophony.
Rales /crepitations / crackles: (rales are old
terms)
Rales/crepitations are short, discrete, interrupted
crackling sound that are heard during inspiration.
Fine crepitation is heard in
pulmonary edema
fibrosing alveolitis
Coarse crepitation is heard in
bronchiectasis
bronchogenic pneumonia
41.
Rhonchi
Rhonchiare continuous sounds produced by the
movement of air in the presence of free fliud in the
airway lumen, the tracheobroncheal tree.
Wheezes: are often audible at the mouth as well as
through the chest wall.
Wheezes, which are generally more prominent
during expiration than inspiration,
Reflect the oscillation of airway walls that occurs
when there is airflow limitation,
Pleural friction rub
Pleural friction rub is heard as creaking noise
(emitted by compression of new leather).
It indicates inflamed pleural surfaces rubbing
against each other, often during both inspiratory
and expiratory phases of the respiratory cycle.
e.g. inflammatory conditions of the pleura (pleurisy) from
adjacent pneumonia or Tb, pulmonary infarction
44.
Stridor
Stridor isa wheeze that is entirely or predominantly
inspiratory i.e. heard on inspiration and
arises from a narrowed airway out side the thorax
(usually trachea) that tends to close on inspiration
This condition can be caused by a croup-like illness,
epiglottitis, anatomical defect, mass lesion, foreign
body, or external obstruction.
45.
Comparison of thechest signs in common respiratory disorders
Disorder Mediastinal
displaceme
nt
Chest wall
movement
Percussion
note
Breath
sounds
Added
sounds
Consolidation None Reduced
over affected
area
Dull Bronchial Crackles
Collapse Ipsilateral
shift
Decreased
over affected
area
Dull Absent or
reduced
Absent
Pleural
effusion
Heart
displaced to
opposite side
(trachea
displaced
only if
massive)
Reduced
over affected
area
Stony dull Absent over
fluid; may be
bronchial at
upper border
Absent;
pleural rub
may be found
above
effusion
46.
Pneumothorax Tracheal
deviation to
opposite
sideif
under
tension
Decreased
over affected
area
Resonant Absent or
greatly
reduced
Absent
Bronchial
asthma
None Decreased
symmetricall
y
Normal or
decreased
Normal or
reduced
Wheeze
Interstitial
pulmonary
fibrosis
None Decreased
symmetricall
y (minimal)
unaffected by
cough or
posture
Normal Fine, late or
pan-
inspiratory
crackles over
affected lobes
47.
Summary of Respiratorysystem
• Inspection
• Palpation
• Percussion
• Auscultation
-Cyanosis and clubbing
-Rate, Rhythm, Depth of
breathing
-Symmetry and shape
-Use of accessory muscle,
retraction and nasal flaring
-Mass and tenderness
-Degree of chest expansion
-Tactile fremitus
-Position of trachea
-Percussion note of lung
field
-Diaphragmatic excursion
-Air entry
-Breath sounds
-Any added sounds
EXAMINATION OF THEARTERIAL SYSTEM
1. Assessing the pulses
Rate
Rhythm
Character
Volume/Amplitude
2. Assessing the vessel wall
3. Auscultation
Bruit
50.
SITES OF PALPATION
•Peripheral arteries(radial, ulnar, popliteal, dorsalis pedis,
and posterior tibial)
• More central arteries(Carotid,Femoral and Brachial)
JUGULAR VENOUS EXAMINATION
•The patient is examined at the optimal degree of
trunk elevation for visualization of venous pulsations
• Relax neck muscles and turn the head slightly away from the
examiner
• Good tangential light (shining a beam of light
tangentially across the skin overlying the vein
exposes the pulsations of the internal jugular vein)
• Differentiate jugular venous pulsation from that of carotid
artery
• Estimation of the Central Venous Pressure (CVP)
54.
CHARACTERISTICS OF JVP
•The top of the venous pulsation can be visible
• Height of column Increased by
Deep expiration
Cough
Hepatojugular/abdominojugular reflux test:
Valsalva manouever
Supine position
55.
CHARACTERISTICS OF JVP
•Height of column falls by deep inspiration
Kussmaul’s sign: an increase rather than the normal
decrease in the CVP during inspiration
*Constrictive pericarditis
*Right ventricular infarction
• Not palpable
• Multiple waves
• Effect of Pressure: Can be obliterated with gentle
pressure at base of vein/clavicle
56.
MEASURING CVP
• IJV(Internal Jugular Vein)is preferred because the EJV is valved
and not directly in line with the superior vena cava (SVC) and
right atrium (RA)
• CVP= JVP + 5 cm of H2o or blood
• JVP is measured as the vertical distance between the top of the
oscillating venous column and the level of the sternal angle
• The sternal angle is used as the reference point because the
center of the right atrium (the zero reference ) lies
approximately 5 cm below the sternal angle in the average
patient, regardless of body position
• A distance of >3 cm is considered abnormal
PALPATION
1. Apical beat/Apicalimpulse localization
2. Point of Maximal Pulsation (PMI)
The point where maximal pulsation is felt
Usually located over the apical beat
3. Palpable heart sounds
4. Thrill
Palpable murmur or bruit
Use the palm of the hand
Timing and location
5. Heave/Lift
Forcefull elevation of the precordium
Apical/parasternal
63.
APICAL IMPULSE
• Itis the lowest and outer most point of cardiac
pulsation
• Evaluation should begin with the patient in the
supine position at 30 degrees
• If the apical impulse is not palpable in this position
Left latteral (left arm above the head)
Sitting
• Best appreciated using finger tips
• The normal left ventricular apex impulse is located
at or medial to the left midclavicular line in the fourth
or fifth intercostal space
7-9 cm from midline
64.
CHARACTERIZATION OF THEAPICAL IMPULSE
1. Palpable or not
o Causes of abscent apical beat:
Obesity
Muscular
Obscured by ribs
COPD
Pericardial effusion
Weak cardiac muscle contraction
65.
CHARACTERIZATION OF THEAPICAL IMPULSE
2. Localization
o Causes of displaced apical impulse:
Thoracic cage deformity
Lung collapse/fibrosis
Massive pleural effusion/Tension pneumothorax
Intraabdominal mass/fluid collection
Left ventricular (LV) cavity enlargement
LV hypertrophy
STANDARD AUSCULTATORY POSITIONS
1.Supine: all
2. Supine and left latteral
Apical diastolic murmur
Apical S3
3. Sitting: all
4. Sitting and leaning forward
Diastolic murmur at semilunar valves
Pericardial friction rub
68.
STANDARD AUSCULTATORY AREAS
1.Aortic area
Right second intercostal space
2. Pulmonic area
Left second intercostal space
3. Erbe’s point
Left third intercostal space
4. Tricuspid area
Left lower sterna boarder
5. Mitrtal area
Apex of the heart
HEART SOUNDS
3. Diastolicsounds
Third heart sound (S3):
Is a low-pitched sound produced in the ventricle
after A2 at the termination of rapid filling
It is also called protodiastolic or ventricular gallop
Indicates impairment of ventricular function, AV
valve regurgitation, or other conditions that
increase the rate or volume of ventricular filling
Normal in children, adolescents, young adults and
during pregnancy
An S3 that is earlier and higher-pitched than normal
(pericardial knock) often occurs in patients with
constrictive pericarditis
72.
HEART SOUNDS
3. Diastolicsounds (ctd)
Fourth heart sound (S4)
Also called presystolic or atrial gallop
Is a low-pitched, presystolic sound produced during
the atrial filling phase of ventricular diastole
Is as a result of diminished ventricular compliance
leading to increased resistance to ventricular filling
Frequently present in patients with systemic
hypertension, AS, HCM, IHD, right ventricular
hypertrophy and acute MR
With out structural heart disease: delayed AV
conduction or elderly
73.
HEART SOUNDS
3. Diastolicsounds (ctd)
Opening snap (OS)
A brief, high-pitched, early diastolic sound
Usually due to stenosis of an AV valve, most often
the mitral valve
4. Systolic sounds
Ejection sound (Ejection click)
Sharp, high-pitched sound occurring in early systole
and closely following the first heart sound
It occurs in the presence of semilunar valve stenosis
and in conditions associated with dilation of the
aorta or pulmonary artery
CARDIAC MURMURS
• Resultfrom audible vibrations caused by increased
turbulence
• Not all murmurs are indicative of valvular or
structural heart disease
• Characterization of a murmur:
1. Intensity (Loudness)
2. Configuration
3. Timing and duration
4. Location
5. Radiation
6. Quality
7. Response to various physiologic maneuvers
76.
GRADING INTENSITY OFMURMUR
• Grade I: faint that it can be heard only with special
effort
• Grade II: Low intensity and heard immediately upon
placing the stethoscope on the chest
• Grade III: Moderately loud and no thrill
• Grade IV: Loud and has thrill
• Grade V: Very loud and heard with the stethoscope
partially off the chest
• Grade VI: Audible with the stethoscope removed from
contact with the chest wall by <= 1 cm
77.
TIMING AND DURATION
•Systolic Murmurs
Early
Mid
Late
Holosystolic
• Diastolic Murmurs
Early
Mid
Late
• Continuous Murmurs
PERICARDIAL FRICTION RUB
•Has three components
Systolic
Presystolic
Early Diastolic
• Best appreciated with the patient upright and leaning
forward
• May be accentuated during expiration
85.
Cardiovascular system
• Peripheralsigns – Breathing pattern, Cyanosis, clubbing, edema, skin changes
• Arteries-BP (both arms & legs when indicated- supine& sitting)and Pulse (at all
accessible arteries- the rate, rhythm, volume, character)
• Veins-JVP, hepato-jugular reflux, kussmaul’s sign, any vein pathology(varices,
phlebitis…)
• Precordium
-Inspection
-Palpation
-Percussion
-Auscultation
-Deformity or bulging
-Active or quiet precordium
-Apical beat (location, distance)
-Heart sounds
-Any added
-PMI & its character
-Palpable heart sounds
-Heave
-Thrill
-Cardiac
outline
#15 Suggests disease of the underlying lung or pleura on affected side – such as pneumonia, pleural effusion, pneumothorax, lung collapse, atelectasis, or unilateral bronchial obstruction or a foreign body lodged in one of the mainstem bronchi
Asymmetrical (unilateral) chest movement– diminished chest movement occurs in lung or pleural lesions. e.g. on the side of pneumothorax, extensive consolidation (e.g. lobar pneumonia).
Bilateral restricted chest movement is noted in chronic obstructive emphysema.
Paradoxical breathing can be seen in patients with neuromuscular disease – if during inspiration the diaphragm rise and the chest wall and abdomen collapse on the involved side
#54 A positive abdominojugular test is best defined as an increase in JVP during 10 s of firm midabdominal compression followed by a rapid drop in pressure of 4 cm blood on release of the compression