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146 Cards in this Set

  • Front
  • Back
anterior thoracic cage
-suprasternal notch
-sternum (manubrium, body, xiphoid process)
-manubriosternal angle (angle of louis)
-costal angle
-ribs
-suprasternal notch
-sternum (manubrium, body, xiphoid process)
-manubriosternal angle (angle of louis)
-costal angle
-ribs
manubriosternal angle aka "angle of louis"
-elevated part of sternum where manubrium meets the body of the sternum
-continuous w/ 2nd rib--2nd intercostal space is right below this rib
-corresponds w/ upper atria of the heart
-where trachea bifurcates
What is a normal costal angle? What would be abnormal?
< 90
> 90 may indicate emphysema; barrel chest increases this angle
How many ribs?
We have 12!
1-7 are directly attached to sternum via cartilage
8, 9, 10 fuse with the above ribs; "false ribs"
11, 12 are floating ribs w/ no anterior connections
posterior thoracic cage
-vertebra prominens (C7)
-spinous processes
-inferior border of scapula is ~7/8th rib
-12th rib- palpate midway b/w spine and side to find " free tip"

*C7-T4 is usually palpable
anterior reference lines
anterior axillary, midclavicular, midsternal
anterior axillary, midclavicular, midsternal
posterior reference lines
scapular, vertebral
scapular, vertebral
lateral reference lines
anterior axillary, posterior axillary, midaxillary
anterior axillary, posterior axillary, midaxillary
thoracic cavity
1/ mediastinum- esophagus, heart, trachea, great vessels (aorta, vena cavae, pulmonary artery)

2/ R pleural cavity

3/ L pleural cavity
everything you wanted to know about lungs
2 lobes on left; 3 lobes on R

R side is shorter (b/c of liver)
L side is narrower (b/c of the heart)

anterior landmarks--
apices of lungs are above clavicle
base of lungs rest on diaphragm ~6th rib

posterior landmarks--
apex is C7
base is T10
During inspiration, lungs will expand to T12

when listening anteriorly- upper lobes
when listening posteriorly- lower lobes (easier to hear congestion when patient is sedentary)
Where do you auscultate RML?
laterally, more anterior
visceral v. parietal plurae
visceral lines the lungs
parietal lines chest walls

*pleural cavity is filled w/ moisture and allows lungs to deflate/inflate
(-) pressure holds lungs against the chest walls
purposes of respiration
*respiration is the physical act of breathing

1/ supply O2 to body for energy production
2/ remove CO2 as waste product
3/ maintain acid-base balances of arterial blood
4/ maintain heat exchange
What happens to the thoracic cavity during inspiration and expiration?
During inspiration, thoracic cavity has (-) pressure, diaphragm descends. Intercostal muscles are used.

Expiration is passive; diaphragm relaxes, creating (+) pressure, and air expels.
subjective questions for respiration
-cough
-dyspnea
-orthopnea (need pillow to sleep)
-chest pain w/ breathing
-hemoptysis
-hx respiratory infections
-hx smoking
-environmental exposure
What does a dry cough indicate? What about a congested cough?
dry cough- cardiac
congested cough- bronchitis pneumonia
parasimal nocturnal dyspnea
patient lying flat at night and suddenly needs to sit up due to SOB; related to fluid accumulation in lung
barrel chest
thorax is squared off
AP transverse is 1:1
e.g. emphysema

*normal AP transverse is 1:2
pectus excavatum v. pectus carinatum
pectus excavatum- sternum indented
pectus carinatum- sternum extended

usually cosmetic but can affect heart and breathing
scoliosis v. kyphosis
scoliosis- spine is curved from side to side
kyphosis- hunchback, usually due to aging
pink puffer v. blue bloater
pink- emphysema; tripoding due to barrel chest--lungs are always inflated

blue- COPD, chronic bronchitis; decreased lung capacity

*smokers will have combination
respiration patterns
tachypnea- RR > 20; exercise, fever, pneumonia

bradypnea- RR < 12; drugs, increased intracranial pressure

kussmaul- faster than normal, deep hyperventilation; anxiety, fear, diabetic ketoacidosis

cheyne-stokes- waxing and weaning w/ perio...
tachypnea- RR > 20; exercise, fever, pneumonia

bradypnea- RR < 12; drugs, increased intracranial pressure

kussmaul- faster than normal, deep hyperventilation; anxiety, fear, diabetic ketoacidosis

cheyne-stokes- waxing and weaning w/ periods of apnea; ESRD, CHF, increased intracranial pressure

biot's- irregular, shallow; brain trauma, heat stroke, end of life
palpation: symmetric expansion of lungs
both hands on posterior chest w/ thumbs @ T9 or T10

thumbs should move apart symmetrically when patient takes a deep breath

if not symmetrical, could be pneumonia or collapsed lung
T/F. Sound is conducted better through a dense/solid structure than porous.
True

Therefore, anything that increases density of lung will increase fremitus.
name a condition w/ increased tactile fremitus
pneumonia
name three conditions w/ decreased tactile fremitus
1/ pneumothorax
2/ lung collapse
3/ any sort of obstruction
percussion
*intercostal space
*only good for 6-7cm; cannot detect small pneumonia, but if you need pleural infusion, want to percuss to outline the area
*would only percuss if patient comes in with

*start at apices of lungs and go side to side
percussion sounds
resonance- healthy lung (louder, deeper sound; air allows it to move freely)

dullness- liver, heart, pneumonia (high, shorter sound)

flat- bone
expected notes on posterior chest
resonance cuts off ~T8
diaphragmatic excursion
should be 3-5 cm bilaterally; runners can be > 5 cm
lung sounds
*use diaphragm
ratio represents inspiration : expiration

vesicular; 2:1
bronchial vesicular; 1:1
bronchial; 1:2
adventitous breath sounds
crackles, rales, crepitations (fine to medium)
crackles, rales, crepitations (medium to coarse)
wheezes (sonorous)
wheezes (sibilant)
stridor
pleural friction rub
crackles, rales, crepitations (fine to medium)
end of inspiration

air is colliding w/ secretions; possible in AM- if it doesn't go away, something could be in alveoli
crackles, rales, crepitations (medium to coarse)
beginning of inspiration- sounds like velcro pulling apart
wheezes (sonorous)
low pitch, snoring sound aka rhonchi
wheezes (sibilant)
high pitch, musical, squeak
e.g. bronchitis, emphysema
stridor
high pitch, loud, crowing during inspiration; something caught in trachea
e.g. child w/ croup
pleural friction rub
"leather rubbing together"
e.g. pleural inflammation
costal diaphragmatic recess
empty space under lung that can fill up w/ extra fluid
Where is the trachea?
trachea is anterior to esophagus and bifurcates below angle of louis
What is the difference between the R and L bronchus?
R bronchus is shorter, wider, and straighter making it easier to aspirate. L bronchus is at angle.
Explain the bifurcation of the bronchus. Where does gas exchange occur?
bronchus >> bronchiole >> alveoli
Gas exchange occurs in the alveoli.
If concerned about pneumonia, what other sounds are you listening for?
transmitted voice sounds--normally is muffled, if you have consolidation, will be able to hear sound

bronchophony: "99" is clear rather than muffled
egophony: "E" changes to "A"
whispered pectoriloquy: whispered 99 is heard clearly rather than faint or absent sound
T/F. Lungs are higher anteriorly than posteriorly.
True
percussion sounds, anterior chest
resonance @ apices, down to 6th rib
dullness @ heart/lung
tympani @ stomach
resonance @ apices, down to 6th rib
dullness @ heart/lung
tympani @ stomach
auscultation sounds, anterior chest
normal lung
trachea- midline
tactile fremitus- normal
breath sounds- vesicular except over bronchi/trachea
percussion- resonant
adventitious sounds- none
atelectasis
bronchial obstruction; diaphragm elevates to fill in space left by shrunken section
e.g. lobar obstruction

trachea- shifted toward involved side
tractile fremitus- absent
breath sounds- absent when bronchial is plugged
percussion- dull over airless area
consolidation
alveoli consolidated w/ fluid, bacteria, RBCs, WBCs
e.g. pneumonia

tactile fremitus- increased over involved area
breath sounds- bronchial or bronchial/vessicular
percussion- dull over airless area
adventitious sounds- late inspiratory crackles
bronchitis
bronchial inflammation w/ copious secretions; deflated alveoli

adventitious sounds- none OR scattered coarse crackles in early inspiration/expiration; wheezes and rhonchi
emphysema
hyper-inflated lungs; overdistended alveoli w/ destruction of septa

tactile fremitus- decreased
breath sounds- decreased/absent
percussion- hyperresonant (tympani)
adventitious sounds- none OR scattered coarse crackles in early inspiration/expiration; wheezes and rhonchi
asthma
similar to bronchitis, but with more spasms
edema of bronchial mucosa, thick mucus

tactile fremitus- decreased
breath sounds- obsured by wheezes
percussion- resonant to hyperresonant
adventitious sounds- wheezes, possibly crackles
pleural effusion
compressed alveoli

trachea- shifted toward opposite site of large effusion
tactile fremitus- decreased/absent
breath sounds- decreased/absent; bronchial sounds can be heard near top of large effusion
percussion- dull to flat over fluid
adventitious sounds- possible rub
pneumothorax
lung collapse; air in pleural space due to rupture in lung wall, leak in chest wall

trachea- shifted toward opposite side if there is a lot of air
tactile fremitus- decreased/absent over pleural air
breath sounds- decreased/absent over pleural air (because lung is not inflated)
adventitious sounds- possible pleural rub
CHF
like pneumonia; dependent airways deflated, engorged capillaries, bronchial mucosa may be swollen

tactile fremitus- decreased
adventitious sounds- late inspiratory crackles in dependent portions of lungs; possible wheezing
external anatomy of breasts
between 2nd and 6th ribs
between sternal edge to mid axillary line
nipple is just below center
*tail of spence- superior lateral corner; projects up and into axilla
What is breast tissue composed of?
-Glandular tissue; 15-20 lobes surrounding the nipple
-Fibrous bands i.e. suspensory ligaments (Cooper's) which support the glandular tissue
-Fat/adipose tissue surrounds breasts (it's the most abundant)
What happens to suspensory ligaments in Breast Cancer patients?
shortens & tightens
Where are most breast cancers found?
Females: upper outer quadrant (tail of spence)
Males: deep under nipple
lymphatics of breasts
*drains into supraclavicular and infraclavicular

axillary nodes
-central axillary
-pectoral
-subscapular
-lateral
T/F. Malignant tumors have increased blood supply due to increased venous return.
True
T/F. Sometimes there's a 2nd nipple following the milk line; it also has glands.
False; 2nd nipple has no glands
How long should a thorough breast exam take?
3 minutes
things to note about lump(s)
-location
-size
-shape
-consistency (firm, hard, soft)
-motility
-distinctness
-nipple retraction
-overlying skin
-tenderness (cancer is not usually tender, although they can be)
-lymphadenopathy
T/F. Pituitary tumors usually result in milky discharge.
True
pulmonary/systemic circulation
Where is the heart?
2nd to 5th intercostal
R border of sternum to L clavicular line
Where is the apical impulse (PMI)?
5th intercostal
midclavicular line
compare the base/apex of the heart and lungs
lungs- apex top, base bottom
heart- base top, apex bottom
Where are the R and L ventricle?
R ventricle- anterior
L ventricle- posterior
great vessels
Where do the common carotid arteries go?
Common carotid arteries go to the brain.
layers of the <3
1/ epicardium- protective connective tissue covered by epithelium
2/ myocardium- thick muscle tissues responsible for pumping out blood
3/ endothelium- inner connective tissue w/ epithelium; purkinje fibers
<3 internal anatomy
know the pathway of blood
know the pathway of blood
compare the pressure of the R and L <3
R <3 is lower pressure system
L <3 is higher pressure system
compare the L and R atriums
R atrium- thinner walls, reservoir
L atrium- thicker walls, pump
systole
"lub"
S1- closing of the AV valves (MT)
*ventricles contract

-right ventricle pumps blood into pulmonary arteries via pulmonic valve
-left ventricle pumps blood into aorta via aortic valve
diastole
"dub"
S2- closing of semilunar valves (AP)
*ventricles relax

-blood flows from R atrium >> R ventricle via tricuspid valve
-blood flows from L atrium >> L ventricle via mitral valve
What is so special about S1?
It correlates to carotid pulse and QRS on ECGs.
What happens to the <3 of a HTN patient?
If diastolic is 100 (or generally high), it takes more isometric muscle contractions to open the valve--patient will develop L ventricular hypertrophy and the heart will go into failure.
After S2, what should you hear during diastole?
Usually very silent; will hear a rumbling if ventricles are resistant to filling (stiff due to hypertrophy or excess fluid); S3 and S4
S3 v. S4
S3- beginning of diastole
S4- end of diastole after atria contracts to get rids of blood (atrial systole or atrial kick)
cardiac output (CO)
stroke volume x heart rate
stroke volume- the amount of blood in systole
blood pressure
CO x SVR
SVR- systolic ventricular resistance in artery
preload
length of which ventricular muscle stretch at the end of diastole

Starling's Law:
greater stretch = stronger contraction
afterload
opposing pressure ventricle has to generate to open aortic valve against aortic pressure
How much blood does a resting adult pump out every minute?
4-6 L
cardiac risk factors
smoking, poor diet, weight, family history, high BP & cholesterol, sedentary life style
cardiac subjective data
chest pain
dyspnea
orthopnea
cough
fatigue
cyanosis/pallor
edema
nocturia; CHF heart is too lazy to bring fluid back so it will go to kidneys instead
T/F. Bruit can be heard if 30% of artery is occluded.
False; 70%
blood pressure
SBP- pressure generated by L ventricle during systole; LV ejects blood into aorta and arterial tree

DBP- pressure generated by blood remaining in arterial tree during diastole; ventricles are relaxed
When will you see distention of neck veins?
R heart failure; fluid is backed up
> will also cause fluid overload in legs
jugular venous pressure
-indicates how R <3 is working
-expressed as vertical height (cm) of column of blood relation to angle of louis
-mean height of this column represents hydrostatic pressure within right atrium
How deep is the right atrium to the sternum?
5 cm deep
How do you measure jugular venous pressure?
one at right atrium (5 cm)
one at height of distended vein, where internal jugular vein collapses

ADD!

*normal is height is 8-10 cm
<3 auscultation sounds
@ AP, S2 > S1
@ TM, S1 > S2
@ erb's point, S1 = S2
Where is erb's point?
3rd intercostal
What are the three positions for auscultation? What purposes do they serve?
sitting, lying down, L lateral decubitus

sitting- base of heart is closer to chest wall; can hear AP better

L lateral decubitus- L and R ventricles are closer; can hear MT, S3 and S4 better
What are you inspecting for when looking at precordium?
Looking for heaves and lifts; if present--
@ tricuspid- RV hypertrophy due to fluid
@ mitral- LV hypertrophy due to pressure
S2 split
will hear aortic valve before pulmonic valve b/c there's more blood in R <3 than L <3

*normal during inspiration; heard @ base
S3
ventricular gallop
"ken-tuc-ky"

best w/ bell, L lateral decubitus position
can be normal in children and young adults--will go away if they sit up; if this doesn't go away in adults >> CHF
S4
atrial gallop
ten-ne-see

best w/ bell
may hear in athletes; usually in adults w/ <3 disease (stiffness due to CAD, systemic HTN)
summation gallop
when you hear both S3 and S4
first signs of CHF
fluid overload, edema, neck distention, S3
rating of mumurs
i. barely audible
ii. clearly audible
iii. moderately loud
iv. loud, associated w/ thrill
v. very loud
vi. heard w/ steth off the chest wall
mumurs
*turbulence through a valve

timing- systolic or diastolic?
location- apex, base, sternal border?
loundness/intensity
pitch
pattern- plateau, crescendo, decrescendo
quality
radiation- to neck?
position of patient
T/F. Diastolic murmurs are worse than systolic murmurs.
True
structural changes that may cause murmurs
stenotic valve- calcification can cause turbulence
incompetent valve- blood goes backwards (e.g. varicose vein or mitral valve)
murmurs during systole
midsystolic ejection- aortic stenosis, pulmonic stenosis
pansystolic- mitral regurgitation, tricuspid regurgitation

*aortic stenosis & mitral regurgitation are more common b/c it is a higher pressure system
murmurs during diastole
diastolic rumbles- mitral stenosis, tricuspid stenosis
early diastolic- aortic regurgitation, pulmonic regurgitation
pericardial rub
inflammation in lining of heart; treated w/ advil
ischemia v. infarction
ischemia- deficient supply of oxygenated blood
e.g. pain s/p exercise in smokers

infarction- complete blockage
T/F. Body has more arteries and they are closer to the skin.
False; veins
T/F. Veins and arteries run parallel.
True
mechanisms of venous flow
-contract skeletal muscles to milk the blood proximally back to heart
-intraluminal valves ensure unidirectional flow
-patent lumen
-inspiration: (-) thoracic pressure, (+) abdominal pressure helps blood get back to heart
lymphatic ducts & draining patterns
thoracic ducts drains most of body

R lymphatic duct drains R face, arm, mediastinum (heart and lung)
thoracic ducts drains most of body

R lymphatic duct drains R face, arm, mediastinum (heart and lung)
functions of lymphatic system
-conserve fluid and proteins that leak out of capillaries
-immune system
-absorb lipids from intestinal tract
subjective PV
1/ pain or cramps
2/ skin changes on arms or legs
3/ swelling
4/ lymph node enlargement
5/ medications- oral contraceptives can cause more blood clots
clubbing
greater than 160 degrees; normal is less
palpate aortic pulsation
patient should be supine, knees flexed

-press firmly on ABD left of midline, just above belly button
-should be less than 3 cm wide

*important to perform on older people (over 50), smokers, HTN
inguinal lymph nodes
palpable--should be soft, mobile, less than 1 cm
*normal to feel them in groin area
indications for ABD aneurysm
-if femoral is decreased compared to carotid
-if bruit is heard over ABD area
-if aortic pulsation is greater than 3 cm
edema
1+ to 4+ (if indentation remains)

causes--
1/ deep venous thromosis (DVT)- blood clot in veins, swelling in one leg but not the other, femoral vein tenderness
2/ chronic venous insufficiency- previous DVT or varicose vein; skin will thicken and get brawny brown color
3/ lymphedema- lymph obstruction from inflammation or tumor, does not pit
4/ orthostatic edema- prolonged standing
5/ CHF- heart has decreased ability to take up fluid
allen test
make sure ulnar artery is working if IV is on radial artery
make sure ulnar artery is working if IV is on radial artery
manual compression test
compress vein

competent valves- if no wave is felt
incompetent valve- if wave felt
chronic arterial insufficiency v. chronic venous insufficiency
venous insufficiency
varicose veins- regurgitating blood back to legs
browning will lead to ulcer
varicose veins- regurgitating blood back to legs
browning will lead to ulcer
arterial insufficiency
when you raise feet, pallor
standing, erythema
homan's sign
support thigh & bend knee slightly, abruptly dorsiflex ankle
(+) if patient experiences deep calf pain which could indicate blood clot in the calf

30% accurate
What are better indicators of DVT?
red, hot, swollen behind knees
T/F. Heart and great vessels develop during first 3 to 8 weeks of gestation.
True
fetal circulation
lung sacs are collapsed and blood is oxygenated through the placenta

high pulmonary vascular resistance limits blood flow into the lungs and redirects it through the patent ductus arteriosus (PDA) to the descending aorta and lower body

with a baby’s first breaths, pulmonary vascular resistance falls, causing a dramatic increase in pulmonary blood flow

at birth, the right ventricle is larger than the left due to high pulmonary resistance during fetal life
notable cardiac differences in peds
infant's <3 is proportionately larger to body

depended to HR and rhythm to maintain CO; cannot adjust (+) stroke volume

myocardial muscle is less efficient >> more sensitive to volume pressure overload

heart sounds are higher pitched, greater intensity
maternal health history related to cardiac function
rubella is associated w/ <3 defects
lithium
DM esp. if untreated
What is one of the best health indicators in infants?
weight gain, height, BMI (starts at age 2), head circumference (until age 3)
How many bpm does an increase in one degree fahrenheit cause?
8-10 bpm
T/F. It is normal for pulse to increase w/ inspiration.
True
peds cyanosis
central- mouth
acrocyanosis- hands and feet, common in infants
T/F. The infant heart is more horizontal.
True

-apex is higher, 4th intercostal space
-PMI is usually palpated at an intercostal space higher (~3rd or 4th intercostal space)
-apex is in the adult position (5th intercostal space) by age 7
T/F. You should palpate the radial and femoral pulses simultaneously.
True. Absence or weaker pulses in the lower extremities compared to the upper extremities is suggestive of coarctation of the aorta.
What is the most important assessment skill in evaluation of infants?
auscultation- sitting and lying down, use diaphragm
T/F. It is unusual for peds to have skipped heart beat, fast HR, or an extra beat.
False; it is NOT unusual
other usual findings for peds
-S2 split; w/ inspiration
-S3 is common; benign
-murmurs are common; 50% are innocent
What does S4 indicate in peds?
S4 is rare; decreased ventricular compliance
physiological murmurs in peds
innocent, systolic, vibratory, musical, does not transmit to other areas of heart

short duration
grade III or less; do not increase over time
pathological murmurs in peds
diastolic, loud
long duration
greater than grade II

usually caused by aortic or pulmonic regurgitation or mitral stenosis