Anatomy Quiz 4 Flashcards

(53 cards)

1
Q

Total lung capacity volume

A

6000ml

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2
Q

Tidal Volume

A

500 ml

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3
Q

Inspiratory reserve volume

A

3000 ml

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4
Q

Functional residual capacity

A

2500 ml

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5
Q

Inspiratory capacity

A

3500 ml

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6
Q

Expiratory reserve volume

A

1000 ml

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7
Q

Residual volume

A

1500 ml

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8
Q

Vital capacity

A

4500 ml

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9
Q

The amount of air inhaled or exhaled on a normal breath during normal, quite respiration

A

Tidal Volume

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10
Q

The additional air that can be forcefully inhaled past a normal tidal volume inspiration

A

Inspiratory reserve volume

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11
Q

The additional air that can be forcefully exhaled past a normal tidal volume expiration

the maximal amount of air which can be forcefully expired following normal expiration

A

Expiratory reserve volume

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12
Q

The volume of air remaining in lungs following a maximal exhalation

the maximal amount of air which remains trapped in lungs after a maximal expiratory effect

A

Residual volume

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13
Q

The total amount of air that can be forcefully expired after maximum inhalation

The maximum amount of air that can be forcefully expired after a maximal inspiration

A

Vital Capacity

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14
Q

Vital capacity equation

A

Vital capacity = Tidal volume + Inspiratory reserve volume + Expiratory reserve volume

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15
Q

The max amount of air that can be inspired after a normal expiration

The maximal amount of air which can be inspired after a normal expiration

A

Inspiratory capacity

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16
Q

Inspiratory capacity equation

A

Inspiratory capacity = Tidal volume + Inspiratory reserve volume

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17
Q

The total amount of air remaining in the lungs after a normal exhalation

The amount of air remaining in the lungs after a normal expiration

A

Functional residual capacity

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18
Q

Functional residual capacity equation

A

Functional residual capacity = Residual volume + expiratory reserve volume

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19
Q

The total amount of air the lungs can contain

A

Total lung capacity

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20
Q

Total lung capacity equation

A

Total lung capacity = Tidal volume + inspiratory reserve volume + expiratory reserve volume + residual volume

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21
Q

Medical test used to measure the 4 lung volumes

Pulmonary test evaluates change in respiratory function

A

Spirometry

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22
Q

effect lungs expandability

A

Restrictive diseases

23
Q

Lungs hyper inflate due to increase in airway restriction

A

Obstructive disease

24
Q

Spirometry uses a simple, non-invasive instrument called

25
Respiratory minute volume (L/min) equation
Respiratory minute volume = Tidal volume (mL) x Respiratory rate (breaths/min)
26
Preformed to assess pulmonary function by measuring how long a person can hold their breath after a max inhalation Can identify lung issues such as COPD and asthma and monitor disease progression, as well as assess fitness levels of individuals who have healthy lungs
Breath holding and lung capacity
27
As carbon dioxide builds up in the blood, the pH of the blood becomes more acidic common symptoms: headache, fatigue, confusion, anxiety, and tremors.
Respiratory acidosis
28
How tidal volume can be measured
dry gas meter
29
calculated by multiplying the total volume of air exhaled (ml) by the number of breaths taken over the collection period (in minutes)
Minute volume
30
The body's rate of energy expenditure
Metabolic rate
31
Metabolic rate is determined by difference in ______ and the percentage of oxygen in the exhaled air stored in the bag multiplied by minute volume (Vm)
percentage of oxygen in inhaled air (20.95%)
32
Rate at which you obtain oxygen from the environment across the surface of the lungs
Ventilation
33
Rate at which oxygen is delivered to the body tissue cells through the capillary walls
Perfusion
34
balance between ventilation and perfusion
ventilation-perfusion coupling
35
rate of oxygen consumption for the respiratory system or cardiovascular system equation
rate of oxygen consumption (Vo2) = (minute volume Vm)(concentration of oxygen in inhaled air (Co2i) - concentration of oxygen in exhaled air (Co2e) = cardiac output (CO)(concentration of oxygen in arterial blood(Co2a) - concentration of oxygen in venous blood (Co2v)
36
Each gram of hemoglobin can bind with
1.34 ml of O2
37
Maximum oxygen content of 100% saturated arterial blood equation
Co2a = average hemoglobin concentration (g Hb/100 mL blood) x 1.34 mL of O2/g Hb
38
oxygen content of venous blood at rest equation
Co2v = 0.6 (concentration of oxygen in arterial blood)
39
resting cardiac output equation
CO = rate of oxygen consumption (Vo2)/(concentration of oxygen in arterial blood - concentration of oxygen in venous blood)
40
resting stroke volume equation
SV = Cardiac output/Heart rate
41
stroke volume from the previous stroke volume at rest using measured changes in pulse pressure
Pulse Pressure resting/ Pulse Pressure exercising = Stroke Volume resting / Stroke Volume exercising
42
Cardiac output during exercise equation
COe = stroke volume X heart rate
43
oxygen content for venous blood during excerise
Vo2 = (Cardiac output)(concentration of oxygen in arterial blood - concentration of oxygen in venous blood
44
Blood pH generally remains constant at ____ so body cells can function optimally
7.35-7.45
45
when carbon dioxide leave the tissue and enters the blood cells it combines with water to form
carbonic acid
46
If concentration of CO2 in blood decreases, there is a decrease in the concentration of hydrogen ions in the blood causing an increase in bloods pH
respiratry alkalosis
47
can occur until CO2 levels increase enough to meet metabolic demand
apnea
48
Commonly heard of respiratory disorders that affect an individuals ability to breath normally
Chronic obstructive pulmonary disorder and asthma
49
cancer challenges
a. early onset cancer--> on rise b.200 + histologically different cancers c. average cancer cell ----5000 mutations ----of 500 ---------5 "driver mutations" ---------rest "passanger mutations" d. Get ride of cancer scam drugs Implies risk are correlated with birth year
50
Accerlerated agining liked to cancer risks in younger adults
-smoking incidence has decreased -WBC counts all of which change with increasing age. -for those that scored "oldest based on chronological age had twice as many onsest lung cancer. 60% increase in GI tumors, and 80% higher risk of uterine cancer -young people appear to be agining faster than older people at that age
51
Average of 5 driver mutations
1. Initiation (somatic cell) 2. Cancer progression (proliferating cells) 3. Evasion of cancer cell elimination (precancerous cells) 4. Tumor growth and dispersal (Tumor ; and anigogensis)
52
Normal cells
1. dont grow in semisolid medium 2. typicaly karyotope (23 sets ; 46) 3. Normal set of micro RNAs 4. few extracellular protease 5. 10-15 micro in vivo 6. lower Nuc/cyclo ratio 7. organized cytoskeleton 8. ECM-normal 9.In vitro-single monolayer (contact inhibition-once touch = stop dividing) 10.can't generate a tumor in said mouse 11. serum dependent growth in vitro 12. secrete few growth factors 13. cell division number (25-50x--> apoptosis 14. few genetic defects 15. cell membrane permeability 17. no angiogenesis 18. normal RTK pathway 19. apoptosis is normal
53
Cancer cells
1. grow in semisolid medium 2. Aneuploidy - cell or organism has an abnormal number of chromosomes 3. Normal set of micro RNAs 4. few extracellular protease 5. 10-15 micro in vivo 6. lower Nuc/cyclo ratio 7. organized cytoskeleton 8. ECM-normal 9.In vitro-single monolayer (contact inhibition-once touch = stop dividing) 10.can't generate a tumor in said mouse 11. serum dependent growth in vitro 12. secrete few growth factors 13. cell division number (25-50x--> apoptosis 14. few genetic defects 15. cell membrane permeability 17. no angiogenesis 18. normal RTK pathway 19. apoptosis is normal