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WorksheetsFUNDAMENTALS O2
Total questions: 78
Worksheet time: 42mins
Low flow delivery device that delivers 1-6 liters of FIO2 per minute
Simple Face Mask
Partial & Non-Rebreather
Nasal Cannula
CPAP & BiPAP
Low flow delivery device that delivers 6-12 liters of FIO2 per minute
Simple Face Mask
Partial & Non-Rebreather
Venturi Mask
CPAP & BiPAP
Low flow delivery device that delivers 10-15 liters of FIO2 per minute
High-Flow Nasal Cannula
Partial & Non-Rebreather
Venturi Mask
CPAP & BiPAP
High flow delivery device of room air mixed with fixed concentrations of oxygen
High-Flow Nasal Cannula
Partial & Non-Rebreather
Venturi Mask
CPAP & BiPAP
High flow delivery device of up to 60 L of FIO2 per minute
High-Flow Nasal Cannula
Partial & Non-Rebreather
Venturi Mask
CPAP & BiPAP
Non-invasive ventilation that delivers up to 100% oxygen concentration
High-Flow Nasal Cannula
Partial & Non-Rebreather
Venturi Mask
CPAP & BiPAP
What is the meaning of FIO2?
Fractional Intubated Oxygen
Fractional Inspired Oxygen
Functional Intubated Oxygen
Functional Inspired Oxygen
At what percentage is FIO2 delivered through a nasal cannula?
24% to 50%
24% to 44%
35% to 50%
21% to 100%
At what percentage is FIO2 delivered through a simple face mask?
24% to 50%
60% to 90%
35% to 50%
21% to 100%
At what percentage is FIO2 delivered through a partial and non-rebreather mask?
24% to 50%
60% to 90%
35% to 50%
21% to 100%
At what percentage is O2 delivered through a venturi mask?
24% to 50%
60% to 90%
35% to 50%
21% to 100%
At what percentage is O2 delivered through a CPAP and BiPAP machine?
24% to 50%
60% to 90%
35% to 50%
21% to 100%
Reservoir bag of partial and non-rebreather mask should ALWAYS remain
Fully Inflated
Partially Inflated
Fully deflated
A venturi mask administers
Low, intermittent O2
Low, constant O2
High, intermittent O2
High, constant O2
Prevents the use of invasive artificial airways in pt's with acute respiratory failure, cardiogenic pulmonary edema, or COPD
Continuous Positive Airway Pressure
Invasive Mechanical Ventilation
Noninvasive Positive Pressure Ventilation
Treats pt's with obstructive sleep apnea, heart failure, and preterm infants with underdeveloped lungs
Continuous Positive Airway Pressure
Invasive Mechanical Ventilation
Noninvasive Positive Pressure Ventilation
Supports cardiopulmonary gas exchange, increases lung volume, and reduces the work of breathing
Continuous Positive Airway Pressure
Invasive Mechanical Ventilation
Noninvasive Positive Pressure Ventilation
Which of the following are ways to promote lung expansion?
Ambulation
Frequent changes in position
45 degree semi fowler's position
Incentive spirometry
Immobility is a major factor in developing
Atelectasis
Bronchitis
Ventilatory associated pneumonia
Functional limitations
Early ambulation increases
Lung expansion
Respiratory impairment
General strength
Pulmonary secretions
Frequent changes of position reduces
Decreased chest wall expansion
Stasis of pulmonary secretions
Increased chest wall expansion
Flow of pulmonary secretions
45 degree semi fowler's position is the most effective to
Clearing secretions
Reduce pressure from the abdomen of the diaphragm
Gaining strength
Promote lung expansion
In the presence of pulmonary abscess of hemorrhage how should you position the patient?
Hunched over forwards
With affected lung up
With affected lung down
Flat on their back
Incentive spirometry encourages what?
Voluntary, deep breathing
Voluntary, shallow breathing
Involuntary, deep breathing
Involuntary, shallow breathing
During suctioning the patient should be in which position?
Right and left lateral recumbent
Supine and dorsal recumbent
Semi and high fowler's
Prone and sims'
Which type of pressure is applied during withdrawal of suctioning catheter?
Positive
Negative
Patient is able to cough effectively but cannot clear secretions... Which suctioning would be used?
Orotracheal & Nasotracheal
Tracheal Suctioning
Oropharyngeal & Nasopharyngeal
The patient is unable to cough to manage secretions... Which type of suctioning is used?
Orotracheal & Nasotracheal
Tracheal Suctioning
Oropharyngeal & Nasopharyngeal
Suctioning used with an artificial airway
Orotracheal & Nasotracheal
Tracheal Suctioning
Oropharyngeal & Nasopharyngeal
NEVER apply suction pressure while
Inserting
Removing
Type of suctioning that uses NEW sterile technique
Opened
Closed
Type of suctioning that uses REUSABLE sterile technique
Opened
Closed
Which of the following is the reason closed suctioning is most often used on patients who require invasive mechanical ventilation?
Decreases chance of pulmonary embolism
Reduces risk of infection
Allows for continuous delivery of O2
Aides in the removal of CO2
Catheter inserted through the thorax into the chest cavity for removing air or fluid
Pulmonary Tube
Chest IV
Chest Tube
Central Line
Which of the following is a chest tube used for?
Chest Surgery
Pneumothorax
COPD
Hemothorax
The loss of which kind of intrapleural pressure causes the lung to collapse?
Positive
Negative
Type of chest tube used to remove small amounts of air
Large Bore Chest Tube
Medium Bore Chest Tube
Small Bore Chest Tube
Mini Bore Chest Tube
Type of chest tube used to remove a large amount of fluid, blood, or air
Large Bore Chest Tube
Medium Bore Chest Tube
Small Bore Chest Tube
Mini Bore Chest Tube
Chest tube systems should be kept
Opened and above the chest
Opened and below the chest
Closed and above the chest
Closed and below the chest
Clamping a chest tube while ambulating patients can result in what?
COPD
Tension pneumothorax
Asthma
Pneumonia
Decreases the oxygen carrying capacity of blood by reducing the amount of hemoglobin transport oxygen
Shock & dehydration
Chronic hypoxemia
Anemia, CO2, & toxins
Fluid loss
Increases red blood cells to increases the amount of hemoglobin and available oxygen-binding sites
Shock & dehydration
Chronic hypoxemia
Anemia, CO2, & toxins
Fluid loss
Causes extracellular fluid loss and reduces circulating blood volume
Shock & dehydration
Chronic hypoxemia
Anemia, CO2, & toxins
Fluid loss
Peripheral vasoconstriction and increased heart rate increases the volume of blood returned to the heart
Shock & dehydration
Chronic hypoxemia
Anemia, CO2, & toxins
Fluid loss
Decreases FIO2 which limits the delivery of inspired oxygen to alveoli
Chronic Lung Disease
Fever
Emphysema
Airway Obstruction
Metabolic needs are high causing oxygenation decline when needs aren't met and the body starts to breakdown protein store causing muscle wasting
Chronic Lung Disease
Fever
Emphysema
Airway Obstruction
Oxygenation decreases as a direct consequence and varying degrees of dyspnea, tachypnea, hypoxemia, and hypercapnia occur
Chronic Lung Disease
Fever
Emphysema
Airway Obstruction
Changes in the AP diameter of the chest wall (barrel chest) occurs bc of overuse of accessory muscles and air trapped in lungs
Chronic Lung Disease
Fever
Emphysema
Airway Obstruction
What alterations in respiratory function affect respirations?
Hypoventilation
Hyperventilation
Hypertension
Hypoxia
What alterations in cardiac function affect respirations?
Disturbances in conduction
Altered cardiac output
Impaired valvular function
Myocardial ischemia
Transient imbalance b/w myocardial oxygen supply and demand
Angina
Right sided heart failure
Myocardial infarction
Left sided heart failure
Sudden decreases in coronary blood flow or an increases in myocardial oxygen demand w/o adequate coronary perfusion
Angina
Right sided heart failure
Myocardial infarction
Left sided heart failure
Abnormal condition characterized by decreased functioning of the left ventricle. resulting is decreased cardiac output
Angina
Right sided heart failure
Myocardial infarction
Left sided heart failure
Abnormal condition characterized by decreased functioning of the right ventricle
Angina
Right sided heart failure
Myocardial infarction
Left sided heart failure
Causes respiratory muscle wasting resulting in muscle strength and respiratory excursion
Fluid volume overload
Dehydration
Smoking
Poor diet
Causes thickening of respiratory secretions
Fluid volume overload
Dehydration
Smoking
Substance abuse
Causes vascular congestion and impairs body's ability to deliver oxygen to tissues
Fluid volume overload
Stress
Smoking
Substance abuse
Worsens peripheral and coronary blood vessels decreasing blood flow to peripheral vessels
Fluid volume overload
Stress
Smoking
Substance abuse
Depresses respiratory center reducing the rate and depth of respiration and the amount of inhaled oxygen
Fluid volume overload
Stress
Smoking
Substance abuse
Increases the metabolic rate and oxygen demand of the body
Fluid volume overload
Stress
Smoking
Substance abuse
The effort required to expand and contract the lungs
Residual volume
Work of breathing
Tidal volume
Forced vital capacity
Amount of air exhaled after normal inspiration
Residual volume
Inspiration
Tidal volume
Forced vital capacity
Amount of air left in alveoli after expiration
Residual volume
Inspiration
Expiration
Forced vital capacity
Max amount of air removed with forced expiration
Surfactant
Inspiration
Expiration
Forced vital capacity
Active process stimulated by chemical receptors in the aorta
Surfactant
Inspiration
Expiration
Forced vital capacity
Passive process that is dependent on the elastic recoil properties of the lungs
Surfactant
Inspiration
Expiration
Forced vital capacity
Chemical produced in the lungs to maintain the surface tension of the alveoli and keep them from collapsing
Surfactant
Inspiration
Expiration
Forced vital capacity
Collapse of the alveoli which prevents normal exchange of oxygen and carbon dioxide
Compliance
Airway resistance
Atelectasis
Accessory muscles
Increases lung volume during inspiration
Compliance
Airway resistance
Atelectasis
Accessory muscles
The ability of the lungs to distend or expand in response to increased intraalverolar pressure
Compliance
Airway resistance
Atelectasis
Accessory muscles
Increase in pressure that occurs as the diameter of the airway decreases
Diffusion
Airway resistance
Atelectasis
Stroke volume
Process for the exchange of respiratory gases in the alveoli of the lungs and capillaries of the body tissue
Diffusion
Airway resistance
Atelectasis
Stroke volume
Volume of blood ejected from the ventricles during systole
Diffusion
Airway resistance
Atelectasis
Stroke volume
Flow of the heart is
Unidirectional
Bidirectional
Period where the atrioventricular valves open and blood flows into the ventricles
Systole
Diastole
Period where the semilunar valves open and blood flows into the pulmonary artery and the aorta
Systole
Diastole
When is the first heart sound heard?
When the AV valves close
Beginning of diastole
When the semilunar valves close
Beginning of systole
When is the second heart sound heard?
When the AV valves close
Beginning of diastole
When the semilunar valves close
Beginning of systole
