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Worksheets2.1 - The Respiratory System Review
Total questions: 117
Worksheet time: 59mins
Tidal volume (TV):
Volume of air still contained in the lungs after a maximal exhalation
Volume of air breathed in & out in any one breath during normal breathing
Volume of air in the lungs after maximum inhalation
Maximum Volume of air that can be exhaled after a maximum inhalation
Vital capacity plus residual volume equals __________________.
Tidal volume
Tidal capacity
Total lung capacity
Total tidal volume
Total Lung Capacity (TLC) is equal to
Vital capacity + residual volume
Vital capacity + expiratory reserve
Vital capacity + expiratory reserve + inspiratory reserve
Tidal volume + residual volume
Pulmonary Ventilation (PV)
Inflow & outflow of air between the atmosphere and the lungs (also called breathing)
Volume of air breathed in & out in any one breath during normal breathing
Volume of air still contained in the lungs after a maximal exhalation
Volume of air in excess of tidal volume that can be exhaled forcibly
Total Lung Capacity (TLC)
Volume of air still contained in the lungs after a maximal exhalation
Volume of air breathed in & out in any one breath during normal breathing
Volume of air in the lungs after maximum inhalation
Maximum Volume of air that can be exhaled after a maximum inhalation
Vital Capacity (VC)
Volume of air still contained in the lungs after a maximal exhalation
Volume of air breathed in & out in any one breath during normal breathing
Volume of air in the lungs after maximum inhalation
Maximum volume of air that can be exhaled after a maximum inhalation
Residual Volume (RV)
Volume of air still contained in the lungs after a maximal exhalation
Volume of air breathed in & out in any one breath during normal breathing
Volume of air in the lungs after maximum inhalation
Maximum volume of air that can be exhaled after a maximum inhalation
Expiratory Reserve Volume (ERV)
Volume of air still contained in the lungs after a maximal exhalation
Volume of air in excess of tidal volume that can be exhaled forcibly
Additional inspired air over & above tidal volume
Maximum volume of air that can be exhaled after a maximum inhalation
Inspiratory Reserve Volume (IRV)
Volume of air still contained in the lungs after a maximal exhalation
Volume of air in excess of tidal volume that can be exhaled forcibly
Additional inspired air over & above tidal volume
Maximum volume of air that can be exhaled after a maximum inhalation
Additional inspired air over & above tidal volume
Inspiratory Reserve Volume (IRV)
Expiratory Reserve Volume (ERV)
Tidal Volume (TV)
Residual Volume (RV)
Volume of air in excess of tidal volume that can be exhaled forcibly
Inspiratory Reserve Volume (IRV)
Expiratory Reserve Volume (ERV)
Tidal Volume (TV)
Residual Volume (RV)
Volume of air breathed in & out in any one breath during normal breathing
Vital Capacity (VC)
Total Lung Capacity (TLC)
Tidal Volume (TV)
Residual Volume (RV)
Volume of air still contained in the lungs after a maximal exhalation
Vital Capacity (VC)
Total Lung Capacity (TLC)
Tidal Volume (TV)
Residual Volume (RV)
Maximum volume of air that can be exhaled after a maximum inhalation
Vital Capacity (VC)
Total Lung Capacity (TLC)
Tidal Volume (TV)
Pulmonary Ventilation (PV)
Volume of air in the lungs after maximum inhalation
Vital Capacity (VC)
Total Lung Capacity (TLC)
Tidal Volume (TV)
Pulmonary Ventilation (PV)
Inflow & outflow of air between the atmosphere and the lungs (also called breathing)
Vital Capacity (VC)
Total Lung Capacity (TLC)
Tidal Volume (TV)
Pulmonary Ventilation (PV)
Vital Capacity (VC) = _________
Tidal Volume + Inspiratory Reserve Volume + Expiratory Reserve Volume
Tidal Volume + Inspiratory Reserve Volume - Expiratory Reserve Volume
Tidal Volume + Pulmonary Ventilation + Residual Volume
Tidal Volume + Pulmonary Ventilation - Residual Volume
Tidal Volume + Inspiratory Reserve Volume + Expiratory Reserve Volume = _____
Tidal Volume (TV)
Residual Volume (RV)
Vital Capacity (VC)
Total Lung Capacity (TLC)
These each (individually - total of 40%) make up 20% of your total lung capacity
Tidal Volume (TV)
Inspiratory Reserve Volume (IRV)
Expiratory Reserve Volume (ERV)
Vital Capacity (VC)
This accounts for 7-8% of total lung capacity
Tidal Volume (TV)
Inspiratory Reserve Volume (IRV)
Expiratory Reserve Volume (ERV)
Vital Capacity (VC)
The normal range of this is 500ml
Tidal Volume (TV)
Residual Volume (RV)
Expiratory Reserve Volume (ERV)
Vital Capacity (VC)
Average of _______ air for males = 6L
Average of _______ air for females = 4.2
Residual Volume (RV)
Total Lung Capacity (TLC)
Tidal Volume (TV)
Inspiratory Reserve Volume
A - represents:
Tidal Volume
Inspiratory Reserve Volume
Expiratory Reserve Volume
Vital Capacity
B - represents:
Tidal Volume
Inspiratory Reserve Volume
Expiratory Reserve Volume
Residual Volume
C - represents:
Tidal Volume
Total Lung Capacity
Expiratory Reserve Volume
Residual Volume
D - represents:
Tidal Volume
Total Lung Capacity
Vital Capacity
Residual Volume
E - represents:
Tidal Volume
Total Lung Capacity
Vital Capacity
Residual Volume
F - represents:
Tidal Volume
Inspiratory Reserve Volume
Vital Capacity
Residual Volume
During inhalation:
The diaphragm contracts & moves upward becoming dome shaped
The diaphragm contracts & flattens
The diaphragm relaxes & moves upward becoming dome shaped
The diaphragm relaxes & flattens
During exhalation:
The diaphragm contracts & moves upward becoming dome shaped
The diaphragm contracts & flattens
The diaphragm relaxes & moves upward becoming dome shaped
The diaphragm relaxes & flattens
During inhalation:
The external intercostals contract
The external intercostals relax
The internal intercostals contract
The internal intercostals relax
During exhalation:
The external intercostals contract
The external intercostals relax
The internal intercostals contract
The internal intercostals relax
When the external intercostals contract:
The ribcage moves outward & upward
The ribcage moves outward & downward
The ribcage moves inward & upward
The ribcage moves inward & downward
When the internal intercostals contract:
The ribcage moves outward & upward
The ribcage moves outward & downward
The ribcage moves inward & upward
The ribcage moves inward & downward
When the external intercostals contract, the internal intercostals:
Contract concentrically
Contract eccentrically
Contract Isometrically
Relax
When the internal intercostals contract, the external intercostals:
Contract concentrically
Contract eccentrically
Contract Isometrically
Relax
During inhalation:
Thoracic volume increases
Thoracic volume decreases
Thoracic pressure increases
Thoracic pressure decreases
During exhalation:
Thoracic volume increases
Thoracic volume decreases
Thoracic pressure increases
Thoracic pressure decreases
Air moves into the lungs when:
Thoracic volume decreases and thoracic pressure increases
Thoracic volume increases and thoracic pressure decreases
Thoracic volume increases and thoracic pressure increases
Thoracic volume decreases and thoracic pressure decreases
Air moves out of the lungs when:
Thoracic volume decreases and thoracic pressure increases
Thoracic volume increases and thoracic pressure decreases
Thoracic volume increases and thoracic pressure increases
Thoracic volume decreases and thoracic pressure decreases
What accessory muscles contract during inhalation?
Scalene muscles
Sternocleidomastoid
Abdominal Muscles
Pectoralis Minor
What accessory muscles contract during inhalation?
Scalene muscles
Sternocleidomastoid
Abdominal Muscles
Pectoralis Minor
Where can we find the Pons & the Medulla?
(a)
Identify which of the following are true:
Inspiration at rest is a passive process
Inspiration at rest is an active process
Inspiration during exercise is a passive process
Inspiration during exercise is an active process
Identify which of the following are true:
Expiration at rest is a passive process
Expiration at rest is an active process
Expiration during exercise is a passive process
Expiration during exercise is an active process
Ventilation increases as a result of (select all that apply):
Increase in blood acidity
Decrease in blood acidity
Increase in pH
Decrease in pH
An increase in blood acidity is associated with an:
(select all that apply)
Increase in pH
Decrease in pH
Increase in Carbon Dioxide
Decrease in Carbon Dioxide
The respiratory centre consists of the:
Alveoli & Pulmonary Capillaries
Hemoglobin & Oxygen
Hemoglobin & Carbon Dioxide
Pons & Medulla
Neural control of ventilation includes:
Lung stretch receptors
Proprioceptors
Blood pH
Chemoreceptors
The elastic recoil in the lungs is brought about by messages sent to the respiratory centre from:
Chemoreceptors
Proprioceptors
Stretch receptors
Muscle receptors
Which respiratory control group controls the rate & depth of ventilation?
The ventral respiratory group (medulla)
The dorsal respiratory group
(medulla)
The pontine respiratory group (pons)
Which respiratory control group controls inspiration?
The ventral respiratory group (medulla)
The dorsal respiratory group
(medulla)
The pontine respiratory group (pons)
Which respiratory control group controls expiration?
The ventral respiratory group (medulla)
The dorsal respiratory group
(medulla)
The pontine respiratory group (pons)
Which type of respiratory receptors detect chemical changes in the blood?
Chemoreceptors
Proprioceptors
Stretch receptors
Joint receptors
Which type of respiratory receptors help us make sense of body position?
Chemoreceptors
Proprioceptors
Stretch receptors
Blood pH
Which type of respiratory receptors inhibit inspiration & stimulate expiration?
Chemoreceptors
Proprioceptors
Stretch receptors
Blood pH
When the diaphragm, external intercostals & accessory muscles begin contracting more forcefully and at a higher rate in order to increase inhalation during exercise, what receptors are responsible for delivering this information to the Respiratory Control Centre?
Chemoreceptors
Proprioceptors
Stretch receptors
Hemoglobin Molecules
When the rectus abdominis, internal intercostals & accessory muscles begin contracting more forcefully and at a higher rate in order to increase exhalation during exercise, what receptors are responsible for delivering this information to the Respiratory Control Centre?
Chemoreceptors
Proprioceptors
Stretch receptors
Hemoglobin Molecules
When carbon dioxide levels within the blood increase during exercise, which receptors deliver that information to the Respiratory Control Centre?
Chemoreceptors
Proprioceptors
Stretch receptors
Hemoglobin Molecules
Stretch receptors send a message to the Respiratory Control Centre which triggers inspiration
True
False
Stretch receptors send a message to the Respiratory Control Centre which triggers expiration after the lungs have been stretched
True
False
Stretch receptors prevent what from occurring to the lungs?
Elastic recoil at the end of an inhalation
Over-stretching of the lungs at the end of an inhalation
Atrophying of the lungs during inhalation
Residual volume levels from reaching critical levels
A capillary is a form of...
Gas exchange
Respiration
Blood vessel
Alveoli
Gaseous exchange happens in the:
Bronchi
Lungs
Alveoli
Heart
Oxygen + hemoglobin = ?
Oxygenated hemoglobin
Oxyhemoglobin
Hemoglobin
Oxygenglobin
Gaseous exchange happens because of...
Osmosis
Respiration
Diffusion
Semi-permeable membranes
Diffusion is...
Movement of gas from an area of high concentration to an area of high concentration
Movement of gas from an area of high concentration to an area of low concentration
Movement of gas from an area of low concentration to an area of high concentration
Movement of gas from an area of low concentration to an area of low concentration
Air arriving in the alveoli has a...
Higher concentration of carbon dioxide (CO2) and a lower concentration of oxygen (O2)
Higher concentration of oxygen (O2) and a lower concentration of carbon dioxide (CO2)
What is gaseous exchange?
The movement of Oxygen and Carbon Dioxide between the bronchi and pulmonary artery
The movement of Oxygen and Carbon Dioxide between the alveoli and bloodstream
The movement of Oxygen and Carbon Dioxide between the heart and lungs
The movement of Oxygen and Carbon Dioxide between the nasal cavity and heart
Air exhaled has more (a) than air inhaled.
(a) is the exchange of gases across a respiratory surface.
The lungs are made up of many tiny air spaces called (a)
The walls of the alveolus and capillaries are (a) cell thick, allowing for ease of diffusion of gases.
Which of these is NOT a suitable characteristic for a gaseous exchange surface.
Moist
Small surface area
Thin
One cell thick
Which of the following consist of tiny air sacs which provide the location for gaseous exchange (it looks like a cluster of grapes)
Alveoli
Blood capillary
Lung
Trachea
Which type of gas enters the lungs?
Oxygen
Carbon dioxide
The gas that is exhaled gas is:
Oxygen
Carbon dioxide
Oxygen diffuses from
Trachea to lung
Alveolus to blood capillary
Blood capillary to alveolus
Lung to trachea
Gaseous exchange is by process of
Respiration
Diffusion
Name A
Trachea
Lung
Alveolus
Blood capillary
Name B
Trachea
Lung
Alveolus
Blood capillary
Oxygen diffuses in from
A to B
B to A
Alveolus is surrounded by
(a)
Oxygen combine with (a) in red blood cell
Which of the following is not correct about alveolus?
Thick wall
Thin wall
Moist wall
Large surface area
Alveolus is effective for gaseous exchange because the wall is (a)
Which of the following is not part of the ventilatory system?
Bronchioles
Trachea
Esophagus
Bronchus
Pharynx
What is the name of the small sacs specially adapted for gas exchange?
Bronchioles
Alveoli
Trachea
Pharynx
Which of the following is not a function of the conducting pathways of the ventilatory system?
Low resistance path for airflow
Defense against harmful substances
Warming and moistening of air
Cooling and drying of air
Which of the following structures is lined with C-shaped cartilage to prevent collapse?
Bronchioles
Alveoli
Lungs
Trachea
What are the principal structures of the ventilatory system?
Mouth, trachea, ribs, intercostal muscles
Nose, pharynx, aorta, diaphragm
Nose, trachea, bronchioles, alveoli
Mouth, larynx, diaphragm, lungs
What are the functions of the nose during inspiration?
I. To moisten the air
II. To diffuse oxygen from the air
III. To filter the air
I and II only
I and III only
II and III only
I, II and III
Which is a principal structure of the ventilatory system?
Globin Chain
Trachea
Hemoglobin
Capillary
Which of the following is a/are function(s) of the conducting airways?
I. Provide a low resistance pathway for air
II. Remove the moisture from the air
III. Provide defence against harmful chemicals
I only
I and III only
II and III only
I, II and III
What is the function of the conducting airways?
Cool and moisten the air
High resistance for air flow
Warm and moisten the air
Gaseous exchange
The voice box is also known as which organ?
Pharynx
Larynx
Tubes that move air from the trachea to the lungs.
Alveoli
Bronchi
Bronchioles
Larynx
Identify the structure represented by #1 in the diagram
Oral Cavity
Nasal Cavity
Pharynx
Alveoli
Identify the structure represented by #2 in the diagram
Oral Cavity
Nasal Cavity
Pharynx
Alveoli
Identify the structure represented by #3 in the diagram
Bronchi
Bronchioles
Pharynx
Larynx
Identify the structure represented by #4 in the diagram
Bronchi
Bronchioles
Lungs
Larynx
Identify the structure represented by #5 in the diagram
Bronchi
Bronchioles
Pharynx
Larynx
Identify the structure represented by #6 in the diagram
Bronchi
Bronchioles
Diaphragm
Alveoli
Identify the structure represented by #7 in the diagram
Bronchi
Bronchioles
Pharynx
Larynx
Identify the structure represented by #8 in the diagram
Bronchi
Trachea
Pharynx
Larynx
Identify the structure represented by #9 in the diagram
Bronchi
Trachea
Bronchioles
Larynx
Identify the structure represented by #10 in the diagram
Bronchi
Trachea
Bronchioles
Larynx
Identify the structure represented by #11 in the diagram
Bronchi
Alveoli
Bronchioles
Larynx
The role of hemoglobin is to:
Carry oxygen from the lungs to the bodies tissues
Return carbon dioxide from the tissues back to the lungs
Moisten the alveolar membrane to facilitate diffusion
Bind with oxygen to form oxyhemoglobin
Hemoglobin is made up of __ protein molecules (globin chains) that are connected together & function as the binding site for oxygen
1
2
3
4
During oxygen transportion:
The heart will pump deoxygenated blood from the right ventricle towards the lungs
The heart will pump deoxygenated blood from the left ventricle towards the lungs
The left ventricle pumps the oxygenated blood to the aorta which distributes the blood to the rest of the body
The right ventricle pumps the oxygenated blood to the aorta which distributes the blood to the rest of the body
During oxygen transportion:
O2 is inhaled & re-oxygenates the blood
CO2 is dropped off at the alveolus & exhaled out of the body
CO2 passes from the alveoli to the blood capillaries via process of diffusion
O2 passes from the bloodstream to the alveoli via process of diffusion
Deoxygenated blood is blood with
High concentration of O2 & low concentration of CO2
High concentration of CO2 & low concentration of O2
High concentration of both O2 & CO2
Low concentration of both O2 & CO2
Oxygenated blood is blood with
High concentration of O2 & low concentration of CO2
High concentration of CO2 & low concentration of O2
High concentration of both O2 & CO2
Low concentration of both O2 & CO2
Only about ___ of the oxygen we breathe in will diffuse directly into the bloodstream to be delivered to the body
0.5%
1.5%
3.5%
5%
___ of the oxygen we breathe in binds to hemoglobin and is then transported to the rest of the body
95%
96.5%
98.5%
99.5%
