PD - Pulm Flashcards
sternal angle of Louis landmark
rib 2
Bifurcation of trachea to bronchi
Carina
T4
inferior wing of scapula landmark
rib 7
boundaries of the lungs landmarks
Superiorly – 3-4 cm above medial end of clavicle
Inferiorly- to rib 6 at the midclavicular line, rib 8 at the midaxillary line and posteriorly to the level of T9 and T12
In both the right and left lungs, the oblique fissure separates the ___________ from the rest of the lung.
The line runs from ____________ to ___________ then posteriorly to the level of ___:
In both the right and left lungs, the oblique fissure separates the lower lobe from the rest of the lung.
The line runs from rib 6 at the midclavicular line to rib 5 at the midaxillary line then posteriorly to the level of T3:
At the end of expiration, the diaphragm is at the level of
Rib 5 Anteriorly
T9 Posteriorly
Barrel Chest
AP diameter equals or is greater than the lateral diameter; eg. advanced COPD
Flail Chest
multiple ribs broken in multiple places, causing that portion of the chest to move paradoxically inward during inspiration
Pectus Carinatum
anterior protrusion of sternum; usually does not compromise ventilation
Pectus Excavatum
depression of sternum; usually accompanied by mitral valve prolapse
Kyphoscoliosis
abnormal AP diameter and lateral curvature of the spine
open pneumothorax
Air bubbling from an open wound in the chest; very abnormal
I:E Ratio
1:2
Expiration may be prolonged in obstructive states such as Asthma or COPD (I:E Ratio of 1:3 or 1:4)
Normal adult respiratory rate
10-14 breaths per minute
Bradypnea
abnormal slowed slowed breathing
Tachypnea
abnormal increase in breathing
apnea
absent breathing
Hyperpnea (Kussmaul’s breathing)
increased depth; usually associated with metabolic acidosis
Biot breathing
irregular with long periods of apnea; eg. Increased intracranial pressure, drug-induced, brain damage
Cheyne-Stokes breathing
irregular with periods of increased and decreased rates and depths and apnea; eg. drug-induced, brain damage
evaluation of the degree of symmetry of chest expansion
Place your hands flat on the patient’s back with thumbs parallel to the midline at around the tenth ribs, pulling the skin slightly towards midline.
Ask the patient to inhale deeply and note the symmetry of your chest as your hands expand.
Your hands should move symmetrically with expansion of the chest wall. Localized pulmonary disease may result in lack of symmetry.
Tactile Fremitus
vibration felt on the chest wall by the examiner when a pt is speaking
increased density of the lung will increase transmission of sound wave, result in increased tactile fremitus
decreased density (fat, air, or fluid) in the chest cavity –> decreased transmission of sound waves, reduced tactile fremitus
To test: place ulnar side of right hand against one side of the patient’s back, away from the scapulae. Ask the patient to say “ninety-nine”, move hand from side to side and top to bottom to detect difs
Flat percussion
high-pitched sound produced from a thick dense mass such as bone or a muscular thigh
Dull percussion
low amplitude, short-duration sound produced from a solid organ such as the liver
Resonant percussion
higher amplitude, low-pitched sound produced from an air-filled tissue such as the lung