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NSG 211 Quiz 3 - Thorax and Lungs

front 1

The thoracic cage consists of what four structures?

back 1

  1. The Sternum
  2. 12 Pairs of ribs
  3. 12 Thoracic vertebrae
  4. The Diaphragm, which forms the floor.

front 2

Which ribs are attached to the sternum via their costal cartilages?

back 2

Ribs 1-7.

front 3

Which ribs are attached to the costal cartilage above?

back 3

Ribs 8-10

front 4

Which ribs are "free floaters"?

back 4

The 11th and 12th ribs. And they have palpable tips.

front 5

On the anterior thorax, what surface landmarks do you look for?

back 5

  • The suprasternal notch.
  • The sternum (or breastbone).
  • The sternal angle (or angle of Louis).
  • The costal angle.

front 6

Where is the Suprasternal Notch and how can you identify it?

back 6

It feels like a hollow U-shaped depression just above the sternum, between the clavicles.

front 7

Where is the Sternum and how can you identify it?

back 7

  • It's made of three parts:
    1. The manubrium
    2. The body
    3. The xiphoid process.
  • Walk your fingers down the manubrium a few centimeters (cm) until you feel a distance bony ridge = the sternal angle.

front 8

Where is the Sternal Angle, what else is it called, and how can you identify it?

back 8

  • Angle of Louis (AoL)
  • It's articulation of the manubrium and body of the sternum, and is continuous with the 2nd rib.
    • It's useful place to start counting ribs, localizing the respiratory finding horizontally.
  • Once AoL is identified, palpate lightly to the second rib and slide down to the 2nd intercostal space (ICS).

front 9

What does the Angle of Louis mark for the respiratory system and the cardiac system?

back 9

  • It marks the site of tracheal bifurcation into the right and left main bronchi.
  • It corresponds with the upper border of the atria of the heart.
    • It lies above the 4th Thoracic vertebra on the back.

front 10

Where is the Costal Angle and why is it important?

back 10

  • It's where the right and left costal margins meet at the xiphoid process, usually forming a 90 degrees angle, or less.
  • This angle increases when the rib cage is chronically overinflated.
    • Ex. Emphysema (a condition in which the air sacs of the lungs are damaged and enlarged, causing breathlessness; or a condition in which air is abnormally present within the body tissues).

front 11

What are the four surface landmarks on the posterior thorax?

back 11

  • The V ertebra Prominens.
  • The Spinous Processes.
  • The Inferior Border of the Scapula
    • Usually the lower tip is at the seventh or eighth rib.
  • The 12th rib.

front 12

What are the references lines on the anterior chest?

back 12

  • The Midsternal line.
  • The Midclavicular line.

front 13

Describe the position of the midclavicular line.

back 13

This line bisects the center of each clavicle at a point halfway between the palpated sternoclavicular and acromioclavicular joints.

front 14

What are the references lines on the posterior chest?

back 14

  • The Vertebral (midspinal) line.
  • The Scapular line.

front 15

Describe the position of the scapular line.

back 15

This line extents through the inferior angle of the scapula when the arms are at the side of the body.

front 16

Lift up the person's arm at 90 degrees, and the lateral chest can be divided in three reference lines. What are they?

back 16

  • The Anterior Axillary line.
  • The Posterior Axillary line.
  • The Midaxillary line.

front 17

Describe the anterior axillary line.

back 17

This line extends down from the anterior axillary fold where the pectoralis major muscle inserts.

front 18

Describe the posterior axillary line.

back 18

This line continues down from the posterior axillary fold where the latissimus dorsi muscle inserts.

front 19

Describe the mid axillary line.

back 19

This line runs down from the apex of the axilla and lies between and parallel to the other two.

front 20

The mediastinum is the middle section of the thoracic cavity and contains, what?

back 20

Contains the:

  • Esophagus
  • Trachea
  • Heart
  • Great vessels.

front 21

What do the right and left pleural cavities on either side of the mediastinum contain?

back 21

Contains the:

  • Lungs

front 22

Anteriorly, where does the apex (highest point) of the lungs lie?

back 22

They lie 3 or 4 centimeters above the inner third of the clavicles

front 23

Where does the base (lower border) of the lungs rest?

back 23

They rest on the diaphragm at about the fifth intercostal space in the right midclavicular line and at the 6th rib in the left midclavicular line.

front 24

Laterally, the lungs extend from the apex of the axilla to what?

back 24

Extends to the 7th or 8th rib.

front 25

Posteriorly, C7 marks the 1. and T10 usually corresponds to the 2. On deep inspiration, the base descends to 3.

back 25

  1. Apex
  2. Base
  3. T12

front 26

The right lung is shorter than the left lung, and has how many lobes?

back 26

It has three lobes.

front 27

The left lung is narrower than the right lung, and has how many lobes?

back 27

It has two lobes.

front 28

Why is the right lung shorter than the left lung?

back 28

Because the liver lies underneath it.

front 29

Why left lung narrower than the right lung?

back 29

Because the heart bulges to the left.

front 30

On the anterior chest, where does the oblique (major or diagonal) fissure lie and terminate?

back 30

This fissure crosses the 5th rib in the midaxillary line and terminates at the 6th rib in the midclavicular line.

front 31

Anteriorly, the right lung also contains the horizontal (minor) fissure, which divides the right upper and middle lobes. Describe where it lies.

back 31

This fissure extends from the 5th rib in the right midaxillary line to the third intercostal space (ICS), or the 4th rib at the right sternal border.

front 32

Posteriorly, what is the most remarkable thing about the lungs?

back 32

It's almost all lower lobe of the lungs on both sides.

front 33

Posteriorly, the upper lobes' apices lies where?

back 33

They begin at T1 and reach down to T3 or T4.

front 34

At what level do the lower lobes begin posteriorly and where do they end?

back 34

They begin at T3 or T4 and reach down to level of T10 (or T12).

front 35

When would the posterior lungs reach T10? And T12?

back 35

  • During Expiration.
  • During Inspiration.

front 36

Laterally, the lungs extend from where to where?

back 36

The lung tissue extends from the apex of the axilla down to the 7th or 8th rib.

front 37

Laterally, the right upper lobe extends from where to where?

back 37

It extends from the apex of the axilla down to the horizontal fissure at the 5th rib.

front 38

Laterally, the right middle lobe extends from where to where?

back 38

It extends from the horizontal fissure down and forward to the 6th rib at the midclavicular line.

front 39

Laterally, the right lower lobe extends from where to where?

back 39

It continues from the 5th rib to the 8th rib in the midaxillary line.

front 40

Laterally, the left upper lobe extends from where to where?

back 40

It extends from the apex of the axilla down to the 5th rib at the midaxillary line.

front 41

Laterally, the left lower lobe extends from where to where?

back 41

It continues down to the 8th rib in the midaxillary line.

front 42

The anterior chest contains mostly...?

back 42

Upper and middle lobe with very little lower lobe.

front 43

The posterior chest contains...?

back 43

Almost all lower lobe.

front 44

What are the four major functions of the respiratory system?

back 44

  1. Supplying O2 to the body for energy production.
  2. Removing CO2 as a waste product of energy reactions (rxns).
  3. Maintaining homeostasis (acid-base balance) of arterial blood.
  4. Maintaining heat exchange (less important in humans).

front 45

Hypoventilation (slow, shallow breathing) causes what to build up in the blood?

back 45

Carbon dioxide (CO2)

front 46

Hyperventilation (rapid, deep breathing) causes what to be blown off?

back 46

Carbon dioxide (CO2)

front 47

What mediates the involuntary control mechanism of respiration?

back 47

The Pons and Medulla in the brainstem.

front 48

What is the normal stimulus that causes us to breathe?

back 48

Hypercapnia: an increase of CO2 in the blood.

front 49

What also causes an increase of respiration, but is less effective than hypercapnia?

back 49

Hypoxemia: a decrease of O2 in the blood.

front 50

In inspiration, increasing the size of the thoracic container creates 1. what kind of pressure in relation to the atmosphere and 2. what occurs because of it?

back 50

  1. Slightly negative pressure.
  2. Causes air to rush in to fill the partial vacuum.

front 51

What major muscle(s) is responsible for the lengthening of the vertical diameter?

back 51

Diaphragm

front 52

What major muscle(s) is responsible for the lengthening of the horizontal diameter?

back 52

Intercostal muscles lift the sternum and elevates the ribs.

front 53

Together, the diaphragm and the intercostal muscles increase what?

back 53

The anteroposterior (A-P) diameter of the thoracic cavity.

front 54

Expiration is primarily passive. As the diaphragm relaxes, elastic forces within the lung, chest cage, and abdomen cause it to dome up. All this squeezing creates what kind of pressure and what occurs?

back 54

Relatively positive pressure within the alveoli, and air flows out.

front 55

To obtain subjective data, what kind of questions should be asked?

back 55

  • About Cough.
  • Shortness of breath.
  • Chest pain with breathing.
  • History of respiratory infections.
  • Smoking history ("pack year": packs per year).
  • Environmental exposure, especially on the job.
  • Self-care behaviors
    • Such as pneumonia or influenza immunizations.

front 56

When can shortness of breath (SOB) be related to heart failure?

back 56

  • If the patient has orthopnea, "two pillow orthopnea," and/or paroxysmal nocturnal dyspnea.

front 57

Define Orthopnea.

back 57

Difficulty breathing while supine (laying down).

front 58

Define the meaning of "Two pillow orthopnea."

back 58

Needs 2+ pillows supporting them in order to be comfortable.

front 59

Define Paroxysmal Nocturnal Dyspnea.

back 59

Awakening from sleep with SOB (caused by an unknown source) and needs to be upright to achieve comfort.

front 60

Some conditions of cough have characteristic sputum production. What could white or clear mucoid indicate?

back 60

  • Colds
  • Bronchitis
  • Viral infections

front 61

Some conditions of cough have characteristic sputum production. What could yellow or green mucoid indicate?

back 61

  • Bacterial infections

front 62

Some conditions of cough have characteristic sputum production. What could rust-colored mucoid indicate?

back 62

  • Tuberculosis
  • Pneumococcal pneumonia

front 63

Some conditions of cough have characteristic sputum production. What could pink, frothy mucoid indicate?

back 63

  • Pulmonary edema
  • Some sympathomimetic medications' side effect (pink-tinged mucus).

front 64

Some conditions have a characteristic cough. What could a hacking cough indicate?

back 64

  • Mycoplasma pneumonia

front 65

Some conditions have a characteristic cough. What could a dry cough indicate?

back 65

  • Early heart failure

front 66

Some conditions have a characteristic cough. What could a barking cough indicate?

back 66

  • Croup (aka Laryngotracheobronchiti)
    • A respiratory condition that is usually triggered by an acute viral infection of the upper airway.
      • The infection leads to swelling inside the throat, which interferes with normal breathing and produces the classical symptoms of a "barking" cough, stridor, and hoarseness.

front 67

Some conditions have a characteristic cough. What could a congested cough indicate?

back 67

  • Cold
  • Bronchitis
  • Pneumonia

front 68

To obtain objective data, inspect the posterior and anterior chest.

  1. Note the shape, configuration, and symmetry of the thoracic cage, including...
  2. Assess the quality of the...
  3. Also observe the skin color and condition and the patient’s...

back 68

  1. Anteroposterior ratio, placement of the scapulae, angle of the ribs, and development of the neck and trapezius muscles.
  2. Respirations.
  3. Position for breathing, facial expression, and level of consciousness.

front 69

The anteroposterior (AP) ratio should be...1. than the transverse (TV) diameter. The ratio of AP to TV diameter is from...2.

back 69

  1. Less than
  2. 1:2 to 5:7

front 70

Describe the characteristics of Barrel Chest.

back 70

  • AP = TV diameter.
  • Costal angle > 90 degrees.
  • Ribs are horizontal instead of the normal downward slope.
  • Chest appears as if held in continuous inspiration.
  • This occurs in chronic emphysema and asthma from hyperinflation of the lungs; and normal aging (see Table 18-3, p. 440).

front 71

Define symptoms of Chronic Obstructive Pulmonary Disease (COPD).

back 71

  • Skinny legs.
  • Barrel chest.
  • Clubbed nails.
  • Tense, strained tired facies.
  • Pursed lips in whistling position.

front 72

The neck muscles and trapezius muscles should be normally developed for age and occupation. What is an abnormal finding?

back 72

Neck muscles are hypertrophied in COPD from aiding in forced respiration.

front 73

Note the position the person takes to breathe.

  1. What is a normal finding?
  2. Abnormal findings for people with COPD?

back 73

  1. Posture is relaxed and they have the ability to support their own weight with arms comfortably at the sides or in the lap.
  2. Sit in a tripod position, leaning forward with arms braced against their knees, chair, or bed.

front 74

Why do people with COPD assume a tripod position to breathe?

back 74

This gives them leverage so that their rectus abdominis, intercostal, and accessory neck muscles can all aid in expiration.

front 75

Why is it extremely important to monitor a person with COPD closely when they receive O2?

back 75

They can stop breathing when they get enough O2. This occurs because we normally breathe to get rid of CO2; but they breathe to get O2. Once they have enough O2, they stop breathing.

front 76

Palpate the thorax and lungs, assessing the entire chest wall, posterior and anterior. What are the three main things that need to be checked?

back 76

  1. Confirm symmetric chest expansion.
  2. Assess tactile (or vocal) fremitus.
  3. Check for any lumps, masses, or tenderness.

front 77

Define (Tactile/Vocal) Fremitus.

back 77

A palpale vibration because sounds generated from the larynx are transmitted through patent bronchi and through the lung parenchyma to the chest wall, where the vibrations are felt.

front 78

Fremitus varies among persons, but it should be?

back 78

Symmetrical; felt in the same corresponding areas on each side.

front 79

What are some normals that could affect the normal intensity of tactile fremitus?

back 79

  1. Relative location of bronchi to the chest wall.
    • Normally most prominent between the scapulae and around the sternum; sites where the major bronchi are closest to the chest wall.
    • It normally decreases with downward progression because more and more tissue impedes the sound transmission.
  2. Thickness go the chest wall.
    • It feels greater over a thin chest wall than over an obese or heavily muscular one where thick tissue dampens the vibration.
  3. Pitch and intensity.
    • A loud, low-pitched voice generates more vibration than a soft, high-pitched one.

front 80

What are some abnormals that could cause decreased fremitus?

back 80

  • When anything obstructs transmission of vibrations (e.g., obstructed bronchus, pleural effusion or thickening, pneumothorax, or emphysema).
  • Any barrier that comes between the sound and your palpating hand.

front 81

What are some abnormals that could cause increase fremitus?

back 81

  • Occurs with compression or consolidation of lung tissue (e.g., lobar pneumonia).
    • This is present only when the bronchus is patent and when the consolidation extends to the lung surface.

front 82

Define Rhonchal fremitus.

back 82

Palpable with thick bronchial secretions.

front 83

Define Pleural friction fremitus.

back 83

Palpable with inflammation of the pleura.

front 84

Define Crepitus.

back 84

A coarse, crackling sensation palpable over the skin surface. It occurs in subcutaneous emphysema when air escapes from the lungs and enters the subcutaneous tissue (as after open thoracic injury or surgery).

front 85

Percuss the posterior and anterior chest; over the 1. to determine the 2. Also percuss to map out the lower lung border and measure 3.

back 85

  1. Lung fields
  2. Predominant note
  3. Diaphragmatic excursion

front 86

What is the predominate sound heard in percussion over the lungs?

back 86

Resonance

front 87

  1. Define the percussion sound: Resonance.
  2. When (why) is it heard?

back 87

  1. Low-pitched, clear, hollow sound.
  2. Found in healthy lung tissue of adults.

front 88

  1. Define the percussion sound: Hyper-resonance.
  2. When/why is it heard?

back 88

  1. A lower-pitched booming sound.
  2. Found when too much air is present (such as emphysema or pneumothorax).

front 89

  1. Define the percussion sound: Dull.
  2. When/why is it heard?

back 89

  1. A soft, muffled thud.
  2. Signals abnormal density in the lungs (pneumonia, pleural effusion, atelectasis, or tumor).

front 90

Define Atelectasis.

back 90

A partial or complete collapsed lung.

front 91

When you auscultate the lobes of the lungs, what are two questions you should be asking yourself as you go?

back 91

  1. What AM I hearing in this spot?
  2. What should I EXPECT to be hearing?

front 92

What are the three types of normal breath sounds heard in an adult and older child during auscultation?

back 92

  1. Bronchial (aka tracheal or tubular)
  2. Bronchovesicular
  3. Vesicular

front 93

What are the characteristics of normal Bronchial (Tracheal) breathing sounds? List the pitch, amplitude, duration, quality, and normal location.

back 93

  1. Pitch: High
  2. Amplitude: Loud
  3. Duration: Inspiration < Expiration
  4. Quality: Harsh, hollow tubular
  5. Normal location: Trachea and larynx

front 94

What are the characteristics of normal Bronchovesicular breathing sounds? List the pitch, amplitude, duration, quality, and normal location.

back 94

  1. Pitch: Moderate
  2. Amplitude: Moderate
  3. Duration: Inspiration = Expiration
  4. Quality: Mixed
  5. Normal location: Over major bronchi where fewer alveoli are located.
    • Posterior
      • Between scapulae, especially on right.
    • Anterior
      • Around upper sternum in 1st and 2nd ICS

front 95

What are the characteristics of normal Vesicular breathing sounds? List the pitch, amplitude, duration, quality, and normal location.

back 95

  1. Pitch: Low
  2. Amplitude: Soft
  3. Duration: Inspiration > Expiration
  4. Quality: Rustling (like the sound of wind in the trees)
  5. Normal location: Over peripheral lung fields where air flows through small bronchioles and alveoli.

front 96

What are three reasons that would decreased or absent breath sounds?

back 96

  1. When the bronchial tree is obstructed at some point by secretions, mucus, plug, or a foreign body.
  2. In emphysema as a result of loss of elasticity in the lung fibers and decreased force of inspired air.
    • Also, the lungs are already hyper inflated so the inhaled air doesn't make as much noise.
  3. When anything obstructs transmission of sound between the lung and your stethoscope, such as pleurisy or pleural thickening, or air (pneumothorax) or fluid (pleural effusion) in the pleural space.

A silent chest means no air is moving in or out, which is an ominous sign.

front 97

What are some reasons for increased breath sounds?

back 97

  • The sounds are louder than they should be (e.g., bronchial sounds are abnormal when they are heard over an abnormal location, the peripheral lung fields).
  • They have a high-pitched, tubular quality, with a prolonged expiratory phase and a distinct pause between inspiration and expiration.
  • They sound very close to your stethoscope; occur when consolidation (e.g., pneumonia) or compression (e.g., fluid in the intrapleural space) yields a dense lung area that enhances the transmission of sound from the bronchi.
  • When inspired air reaches the alveoli, it hits solid lung tissue that conducts sound more efficiently to the surface.

front 98

Define Adventitious sounds.

back 98

  • They are sounds that are not normally heard in the lungs.
  • If present, they are heard as being superimposed on the breath sounds.
  • They are caused by moving air colliding with secretions in the tracheobronchial passageways or by the popping open of previously deflated airways.

front 99

What are discontinuous sounds?

back 99

Discrete, crackling sounds.

front 100

What are continuous sounds?

back 100

Connected, musical sounds.

front 101

Describe Fine Crackles (or Rales).

back 101

  1. Description
    • Discontinuous, high-pitched, short crackling, popping sounds heard during inspiration that are not cleared by coughing.
    • Sound can be simulated by rolling a strand of hair between your fingers near your ear, or by moistening your thumb and index finger and separating them near your ear.
  2. Mechanism
    • Inspiratory crackles:
      • Inhaled air collides with previously deflated airways.
      • Airways suddenly pop open, creating explosive crackling sound.
    • Expiratory crackles:
      • Sudden airway closing.
  3. Clinical Example
    • Late inspiratory crackles
      • Occur with restrictive disease: pneumonia, heart failure, and interstitial fibrosis.
    • Early inspiratory crackles
      • Occur with obstructive disease: chronic bronchitis, asthma, and emphysema.
    • Posturally induced crackles (PICs)
      • Fine crackles that appear with a change from sitting to the supine position or with a change from supine to supine with legs elevated.

front 102

Describe Coarse Crackles (Coarse Rales)

back 102

  1. Description
    • Loud, low-pitched, bubbling and gurgling sounds that start in early inspiration and may be present in expiration.
    • May decrease somewhat by suctioning or coughing but will reappear shortly - sounds like opening a Velcro fastener.
  2. Mechanism
    • Inhaled air collides with secretions in the trachea and large bronchi.
  3. Clinical Example
    • Pulmonary edema, pneumonia, pulmonary fibrosis, and the terminally ill who have a depressed cough reflex.

front 103

Describe Atelectatic Crackles (Atelectatic Rales).

back 103

  1. Description
    • Sounds like fine crackles but do not last and are not pathologic.
    • Disappear after the first few breaths.
    • Heard in axillae and bases (usually dependent) of lungs.
  2. Mechanism
    • When sections of alveoli are not fully aerated, they deflate and accumulate secretions.
    • Crackles are heard when these sections re-expand with a few deep breaths.
  3. Clinical Example
    • In aging adults.
    • In bedridden persons.
    • In persons just aroused from sleep.

front 104

Describe Pleural Friction Rub.

back 104

  1. Description
    • A very superficial sound that is coarse and low pitched.
    • It has a grating quality as if two pieces of leather are being rubbed together.
    • Sounds just like crackles, but close to the ear.
    • Sounds louder if you push the stethoscope harder onto the chest wall.
    • Sound is inspiratory and expiratory.
  2. Mechanism
    • Caused when pleurae become inflamed and lose their normal lubricating fluid.
    • Their opposing roughened pleural surfaces rub together during respiration.
    • Heard best in anterolateral wall where greatest lung mobility exists.
  3. Clinical Example
    • Pleuritis, accompanied by pain with breathing (rub disappears after a few days if pleural fluid accumulates and separates pleurae).

front 105

Describe Wheeze (Sibilant).

back 105

  1. Description
    • High-pitched, musical squeaking sounds that sound polyphonic (multiple notes as in a musical chord).
    • Predominate in expiration but may occur in both expiration and inspiration.
  2. Mechanism
    • Air squeezed or compressed through passageways narrowed almost to closure by collapsing, swelling, secretions, or tumors.
    • The passageway walls oscillate in apposition between the closed and barely open positions.
    • The resulting sound is similar to a vibrating reed.
  3. Clinical Example
    • Diffuse airway obstruction from acute asthma or chronic emphysema.

front 106

Describe Wheeze (Sonorous Rhonchi).

back 106

  1. Description
    • Low-pitched, monophonic single note, musical snoring, moaning sounds.
    • They are heard throughout the cycle, although they are more prominent on expiration.
    • May clear somewhat by coughing.
  2. Mechanism
    • Airflow obstruction as described by the vibrating reed mechanism from the high-pitched wheezing.
    • The pitch of the wheeze cannot be correlated to the size of the passageway that generates it.
  3. Clinical Example
    • Bronchitis, single bronchus obstruction from airway tumor.

front 107

Are atelectatic crackles an adventitious sound? Why or why not?

back 107

  • Not an adventitious sound.
  • They are short, popping, crackling sounds (fine crackles), but do not last beyond a few breaths.
  • In older adults or people who are asleep, sections of alveoli are not fully aerated, since they deflate slightly and accumulate secretions.
  • Crackles are heard when these secretions are expanded by a few deep breaths.
  • They are only heard in the periphery, usually in dependent portions of the lungs, and disappear after the first few breaths or after a cough.

front 108

Normally there should be no retraction or bulging of the interspaces during inspiration. What could be indicated if the abnormal findings of retraction and bulging are seen?

back 108

  • Retraction suggests obstruction of respiratory tract or increased inspiratory effort is needed (as with atelectasis).
  • Bulging indicates trapped air as in forced expiration associated with emphysema or asthma.

front 109

Describe the characteristics of Scoliosis.

back 109

  • A lateral S-shaped curvature of the thoracic and lumbar spine.
  • Usually involves vertebrae rotation.
  • Note:
    • Unequal shoulder
    • Scapular height
    • Unequal hip levels
    • Rib interspaces flared on convex side.
  • More prevalent in adolescent age-groups, especially girls.
  • If severe (> 45 degrees), it may reduce lung volume and person is at risk for impaired cardiopulmonary function.

front 110

Describe the respiratory pattern of a Normal Adult.

back 110

  • Rate: 10-20 breaths per minute.
  • Depth: 500-800 mL; air moving in and out with each respiration.
  • Pattern: Even.
  • The ratio of pulse to respiratory is fairly constant; about 4:1.
    • Both values increase as a normal response to exercise, fear, or fever.

front 111

Describe the respiratory pattern of a Sigh.

back 111

  • Occasionally punctures the normal breathing pattern and purposefully expands alveoli.
  • If frequent, it may indicate emotional dysfunction.
    • It may also lead to hyperventilation and dizziness.

front 112

Describe the respiratory pattern of a Tachypnea.

back 112

  • Rapid, shallow breathing.
  • Increased rate: > 24 per minute.
  • Normal response to fever, fear, or exercise.
  • Rate also increases with:
    • Respiratory insufficiency
    • Pneumonia
    • Alkalosis
    • Pleurisy
    • Lesions in the pons.

front 113

Describe the respiratory pattern of a Bradypnea .

back 113

  • Slow breathing.
  • A decreased, but regular rate: < 10 per minute.
  • As in:
    • Drug-induced depression of the respiratory center in the medulla.
    • Increased intracranial pressure
    • Diabetic coma

front 114

Describe the respiratory pattern of a Hyperventilation.

back 114

  • Increased rate and depth.
  • Normally occurs with extreme exertion, fear, or anxiety.
  • Also occurs with:
    • Diabetic ketoacidosis (Kussmaul respirations).
    • Hepatic coma.
    • Salicylate overdose.
      • Producing a respiratory alkalosis to compensate for the metabolic acidosis.
    • Lesions in the midbrain.
    • Alteration in blood gas concentration.
      • Either an increase in CO2 or a decrease in O2.
  • It blows off CO2, causing a decreased level in the blood (alkalosis).

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Describe the respiratory pattern of a Hypoventilation.

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  • An irregular shallow pattern.
  • Caused by an overdose of narcotics or anesthetics.
  • May also occur with prolonged bedrest or conscious splinting of the chest to avoid respiratory pain.

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Describe the respiratory pattern of a Cheyne-Stokes Respiration.

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  • Aka "Death breathing" or agonal breathing.
  • A cycle in which respiration gradually wax and wane in a regular pattern.
    • Increasing in rate and depth, then decreasing.
  • The breathing periods last 30-45 seconds, with periods of apnea (20 seconds) alternating the cycle.
  • The most common cause is severe heart failure, or:
    • Renal failure
    • Meningitis
    • Drug overdose
    • Increased intracranial pressure
  • Occurs normally in infants and aging persons during sleep.

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Describe the respiratory pattern of a Chronic Obstructive Breathing.

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  • Normal inspiration and prolonged expiration to overcome increased airway resistance.
  • In a person with chronic obstructive lung disease, any situation calling for increased heart rate (ex. exercise) may lead to dyspneic episode (air trapping), because then the person doesn't have enough time for full expiration.

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Describe the Assessment of the Common Respiratory Conditions of Lobar Pneumonia.

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  1. Condition
    • Infection in lung parenchyma leaves alveolar membrane edematous and porous, so RBCs and WBCs pass from blood to alveoli.
    • Alveoli progressively fill up (become consolidated) with bacteria, solid cellular debris, fluid, and blood cells, which replace alveolar air.
    • This decreases surface area of the respiratory membrane, causing hypoxemia.
  2. Inspection
    • Increased respiratory rate.
    • Guarding and lag on expansion on affected side.
    • In children: sternal retraction and nasal flaring.
  3. Palpation
    • Chest expansion decreased on affected side.
    • Tactile fremitus increased if bronchus patent, decreased if bronchus obstructed.
  4. Percussion
    • Dull over lobar pneumonia.
  5. Auscultation
    • Breath sounds louder with patent bronchus, as if coming directly from larynx.
    • Voice sounds have increased clarity.
    • Bronchophony, egophony, whispered pectoriloquy present.
    • In children: diminished breath sounds may occur early in pneumonia.
  6. Adventitious Sounds
    • Crackles, fine to medium.

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What is some subjective data for Lobar Pneumonia?

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Pt. c/o:

  • Dyspnea
  • Fatigue
  • Cough (may be productive)
  • Chest pain
  • Back pain
  • Possible fever

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What is some objective data for Lobar Pneumonia?

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  • Increase respiratory rate.
  • Chest expansion decreased.
  • Rales over affected area.
  • Dull to percussion over affected area.

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Lobar Pneumonia

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Describe the Assessment of the Common Respiratory Conditions of Bronchitis.

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  1. Condition
    • Proliferation of mucus glands in the passageways, resulting in excessive mucus secretion.
    • Inflammation of bronchi with partial obstruction of bronchi by secretions or constrictions.
    • Sections of lung distal to obstruction may be deflated.
    • Bronchitis may be acute or chronic with recurrent productive cough.
    • Chronic bronchitis is usually caused by cigarette smoking.
  2. Inspection
    • Hacking, rasping cough productive of thick mucoid sputum.
    • Chronic: dyspnea, fatigue, cyanosis, possible clubbing of fingers.
  3. Palpation
    • Tactile fremitus normal.
  4. Percussion
    • Resonant.
  5. Auscultation
    • Normal vesicular.
    • Voice sounds normal.
    • Chronic: prolonged expiration.
  6. Adventitious Sounds
    • Crackles over deflated areas.
    • May have wheeze.

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What is some subjective data for Acute Bronchitis?

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Pt. c/o:

  • Acute or chronic, dry cough
  • Dyspnea
  • Increase respiratory rate
  • Sputum production
  • Fatigue

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What is some objective data for Acute Bronchitis?

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  • Palpation and Percussion findings normal.
  • Crackles over area of obstruction.
  • May have wheezes.

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Bronchitis

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Describe the Assessment of the Common Respiratory Conditions of Emphysema.

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  1. Condition
    • Caused by destruction of pulmonary connective tissue (elastin, collagen).
    • Characterized by permanent enlargement of air sacs distal to terminal bronchioles and rupture of inter alveolar walls.
    • This increases airway resistance, especially on expiration - producing a hyper-inflated lung and an increase in lung volume.
    • Cigarette smoking accounts for 80%-90% of cases of emphysema.
  2. Inspection
    • Increased anteroposterior diameter.
    • Barrel chest.
    • Use of accessory muscles to aid respiration.
    • Tripod position.
    • Shortness of breath, especially on exertion.
    • Respiratory distress.
    • Tachypnea.
  3. Palpation
    • Decreased tactile fremitus and chest expansion.
  4. Percussion
    • Hyper-resonant.
    • Decreased diaphragmatic excursion.
  5. Auscultation
    • Decreased breath sounds.
    • May have prolonged expiration.
    • Muffled heart sounds resulting from over-distention of lungs.
  6. Adventitious Sounds
    • Usually none.
    • Occasionally, wheeze.

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What is some subjective data for Emphysema?

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Pt. c/o:

  • Dyspnea (also DOE)
  • Increase respirations

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What is some objective data for Emphysema?

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  • Increase respiratory rate.
  • Use of accessory muscles.
  • Barrel chest (chronic).
  • Cyanosis.
  • Tactile fremitus decreased.
  • Breath sounds decreased.
  • May have bilateral wheezing.

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Emphysema

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Describe the Assessment of the Common Respiratory Conditions of Asthma (aka Reactive Airway Disease) .

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  1. Condition
    • An allergic hypersensitivity to certain inhaled allergens (pollen), irritants (tobacco, ozone), microbes, stress, or exercise that produces a complex response characterized by bronchospasm and inflammation, edema in walls of bronchioles, and secretion of highly viscous mucus not airways.
    • These factors greatly increase airway resistance, especially during expiration, and produce the symptoms of wheezing, dyspnea, and chest tightness.
  2. Inspection
    • During severe attack:
      • Increased respiratory rate
      • SOB with audible wheeze
      • Use of accessory muscles
      • Cyanosis
      • Apprehension
      • Retraction of ICSs
      • Expiration labored, prolonged.
    • When chronic, may have barrel chest.
  3. Palpation
    • Decreased tactile fremitus.
    • Tachycardia.
  4. Percussion
    • Resonant.
    • May be hyper-resonant if chronic.
  5. Auscultation
    • Diminished air movement.
    • Breath sounds decreased, with prolonged expiration.
    • Voice sounds decreased.
  6. Adventitious Sounds
    • Bilateral wheezing on expiration
    • Sometimes inspiratory and expiratory wheezing.

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What is some subjective data for Asthma?

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  • Dyspnea
  • Increase respiratory rate
  • Wheezing
  • Use of accessory muscles

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What is some objective data for Asthma?

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  • Tactile fremitus decreased.
  • Inspiratory & Expiratory wheezing.

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Asthma