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microbiology chap 12

front 1

1. In the late nineteenth century, immigration from Ireland to the United States occurred in high numbers due to an infection of potatoes by

A. bacteria.
B. viruses.
C. fungi.
D. amoeboid protozoa.
E. water molds.

back 1

E. water molds.

front 2

2. Plant pathology grew in importance as a field of study after it was shown that the Irish potato blight was caused by
A. bacteria.
B. viruses.
C. fungi.
D. amoeboid protozoa.
E. water molds.

back 2

E. water molds.

front 3

3. Most fungi are
A. aerobic or facultatively anaerobic.
B. obligate anaerobes.
C. obligate aerobes.
D. microaerophiles.

back 3

A. aerobic or facultatively anaerobic.

front 4

4. Fungi are particularly adept at infecting
A. protozoans.
B. algae.
C. animals.
D. plants.

back 4

D. plants.

front 5

5. The return of carbon dioxide to the atmosphere and nitrogen to the soil is due to the action of
A. viruses and plants.
B. bacteria and viruses.
C. fungi and bacteria.
D. fungi and viruses.

back 5

C. fungi and bacteria.

front 6

6. All fungi have ______ in their cell walls.
A. cellulose
B. pectin
C. peptidoglycan
D. chitin

back 6

D. chitin

front 7

7. Fungi are classified according to their
A. mode of locomotion.
B. morphology.
C. mode of nutrition.
D. method of sexual reproduction.

back 7

D. method of sexual reproduction.

front 8

8. The group of Fungi in which sexual reproduction has not been observed is
A. Ascomycetes.
B. Deuteromycetes.
C. Zygomycetes.
D. Basidiomycetes.

back 8

B. Deuteromycetes.

front 9

9. Deuteromycetes has been further classified using
A. DNA probes.
B. rRNA analysis.
C. Southern blotting.
D. replica plating.

back 9

B. rRNA analysis.

front 10

10. The terms yeast, mold, and mushrooms refers to fungal
A. reproduction.
B. morphology.
C. nutrition.
D. parasites.

back 10

B. morphology.

front 11

11. A tangle of fungal hyphae is generally known as a
A. bud.
B. mycelium.
C. germ tube.
D. spore.

back 11

B. mycelium.

front 12

12. Dimorphic fungi
A. may grow as mycelia or yeast.
B. are often associated with disease in humans.
C. are mushrooms.
D. are strictly hyphae.
E. may grow as mycelia or yeast AND are often associated with disease in humans.

back 12

E. may grow as mycelia or yeast AND are often associated with disease in humans.

front 13

13. Fungal spores are a major cause of
A. anaerobic disease.
B. fermentation.
C. food spoilage.
D. asthma.

back 13

D. asthma.

front 14

14. The pH at which most fungi thrive is
A. 3.0.
B. 5.0.
C. 7.0.
D. 8.0.

back 14

B. 5.0.

front 15

15. Lichens may be an association of
A. several different fungi.
B. protozoa and bacteria.
C. algae and fungus.
D. virus and algae.

back 15

C. algae and fungus.

front 16

16. Mycorrhizae
A. are vital for the survival of lichens.
B. are vital for the survival of many plants.
C. increase the absorptive ability of roots.
D. are used in the production of wine, beer, and bread.

E. are vital for the survival of many plants AND increase the absorptive ability of roots.

back 16

E. are vital for the survival of many plants AND increase the absorptive ability of roots.

front 17

17. Haustoria
A. are a form of parasitic protozoan.
B. refers to the reproductive structure formed by slime molds.
C. are specialized hyphae used by parasitic fungi.
D. are the reproductive form of protozoans.

back 17

C. are specialized hyphae used by parasitic fungi.

front 18

18. Fungi capable of dimorphism grow either as
A. rhizoids or hyphae.
B. yeast-like or mycelium.
C. germ tubes or buds.
D. spores or mushrooms.

back 18

B. yeast-like or mycelium.

front 19

19. Fungal diseases are generally referred to as
A. mycoses.
B. infections.
C. systemics.
D. infestations.

back 19

A. mycoses.

front 20

20. Aflatoxins
A. are produced by Aspergillus.
B. are possible carcinogens.
C. may be found in peanuts.
D. are toxins.
E. All of the choices are correct.

back 20

E. All of the choices are correct.

front 21

21. Fungi that are important for fermentation of fruits
A. are yeasts.
B. are facultative anaerobes.
C. grow well at acid pH.
D. secrete enzymes that degrade organic molecules.
E. All of the choices are correct.

back 21

E. All of the choices are correct.

front 22

22. Coccidioidomycosis is
A. a fungal disease.
B. a protozoal disease.
C. caused by Coccidioides sp.
D. caused by Candida sp.
E. a fungal disease AND caused by Coccidioides sp.

back 22

E. a fungal disease AND caused by Coccidioides sp.

front 23

23. Fungi are important in
A. food production.
B. food spoilage.
C. production of antibiotics.
D. disease of plants.
E. All of the choices are correct.

back 23

E. All of the choices are correct.

front 24

24. Fungi are important because of their ability to
A. help many plants grow.
B. cause disease in plants.
C. make certain foods and beverages.
D. spoil food.
E. All of the above.

back 24

E. All of the above.

front 25

25. Algae are important environmentally as
A. major producers of carbon dioxide.
B. major producers of oxygen.
C. local flora.
D. local contaminants.

back 25

B. major producers of oxygen.

front 26

26. Free-floating, photosynthetic organisms found in marine environments are
A. Bucella.
B. blue-green algae.
C. krill.
D. phytoplankton.

back 26

D. phytoplankton.

front 27

27. Algae
A. often grow in areas where other forms of life may have difficulty.
B. are strictly macroscopic organisms.
C. have a vascular system similar to plants.
D. are only found in the soil.

back 27

A. often grow in areas where other forms of life may have difficulty.

front 28

28. Macroscopic algae possess a special structure that acts as an anchor and is commonly called
A. a thallus.
B. a holdfast.
C. roots.
D. the stipe.

back 28

B. a holdfast.

front 29

29. Agar is obtained from
A. bacteria.
B. algae.
C. protozoans.
D. plants.

back 29

B. algae.

front 30

30. Diatoms are algae whose silicon dioxide-containing shells are useful economically as
A. filters.
B. fertilizers.
C. stabilizers.
D. thickeners.

back 30

A. filters.

front 31

31. The site in a photosynthetic eukaryotic cell where photosynthesis occurs is the
A. nucleus.
B. carotenoid.
C. mitochondria.
D. chloroplast.

back 31

D. chloroplast.

front 32

32. Sexual reproduction in algae utilizes meiosis that results in the production of
A. spores with twice as much DNA as the parental cells.
B. gametes with half the amount of DNA as in the parental cells.
C. spores with the same amount of DNA as the parental cells.
D. swarming cells with the same amount of DNA as the parental cells.

back 32

B. gametes with half the amount of DNA as in the parental cells.

front 33

33. Paralytic shellfish poisoning occurs when humans eat shellfish that have fed on
A. Gonyaulax spp.
B. Salmonella spp.
C. Vibrio cholerae.

back 33

A. Gonyaulax spp.

front 34

34. Gonyaulax
A. produces a non-protein neurotoxin.
B. infects the nervous system of humans.
C. is a dinoflagellate.
D. produces a non-protein neurotoxin AND is a dinoflagellate.

back 34

D. produces a non-protein neurotoxin AND is a dinoflagellate.

front 35

35. Organisms that may cause red tide are

A. green algae.

B. brown algae.

C. dinoflagellates

D. euglenids.

back 35

C. dinoflagellates

front 36

36. Single-celled eukaryotic organisms that lack chlorophyll are called
A. Algae.
B. Protozoa.
C. Chlorophyta.
D. Salmonella.

back 36

B. Protozoa.

front 37

Protozoan classification used to be based on their means of

A. locomotion.
B. growth.
C. reproduction.
D. obtaining nutrients.

back 37

A. locomotion.

front 38

38. Sarcodina move by means of
A. flagella.
B. apicomplexans.
C. cilia.
D. pseudopodia.

back 38

D. pseudopodia.

front 39

39. Protozoans are an important part of the food chain ingesting large numbers of
A. fish.
B. bacteria and algae.
C. shellfish.
D. other protozoans.

back 39

B. bacteria and algae.

front 40

40. The most necessary habitat requirement of protozoa is
A. moisture.
B. light.
C. temperature.
D. UV light.

back 40

A. moisture.

front 41

41. The ability to exist as either a trophozoite or a cyst is characteristic of many
A. fungi.
B. viruses.
C. protozoa.
D. bacteria.

back 41

C. protozoa.

front 42

42. Schizogony
A. means multiple fissions.
B. is performed by bacteria.
C. is performed by protozoa.
D. is a form of reproduction.
E. means multiple fissions AND is performed by protozoa.

back 42

E. means multiple fissions AND is performed by protozoa.

front 43

43. One of the greatest causes of human deaths through time has been due to
A. Giardia spp.
B. Histoplasma spp.
C. Trypanosoma spp.
D. Plasmodium spp.

back 43

D. Plasmodium spp.

front 44

44. Convergent evolution
A. explains the morphological similarity yet major genetic differences found between slime molds and fungi.
B. refers to two different organisms that develop similar characteristics in adaptation to similar environments.
C. explains the structure of lichens.
D. refers to the one organism dividing into two.
E. explains the morphological similarity yet major genetic differences found between slime molds and fungi AND refers to two different organisms that develop similar characteristics in adaptation to similar environments.

back 44

E. explains the morphological similarity yet major genetic differences found between slime molds and fungi AND refers to two different organisms that develop similar characteristics in adaptation to similar environments.

front 45

45. When cellular slime molds run out of food, they form a
A. plasmodium.
B. slug.
C. myxamoeba.
D. rhizoid.

back 45

B. slug.

front 46

46. Lyme disease is transmitted by
A. ticks.
B. lice.
C. mosquitoes.
D. fleas.

back 46

A. ticks.

front 47

47. Pediculus humanus
A. only uses humans as a host.
B. is carried by mosquitoes.
C. only infects hands.
D. can transmit a bacterial disease.
E. only uses humans as a host AND can transmit a bacterial disease.

back 47

E. only uses humans as a host AND can transmit a bacterial disease.

front 48

48. Lice and mites
A. are both arachnids.
B. may both be spread by personal contact.
C. are intestinal parasites.
D. cause Lyme disease.

back 48

B. may both be spread by personal contact.

front 49

49. Which are not arthropods?
A. Mosquitoes

B. Fleas

C. Lice

D. Ticks

E. Flukes

back 49

E. Flukes

front 50

50. Sarcoptes scabiei
A. transmit bacterial disease.
B. are responsible for scabies.
C. infect the blood.
D. are transmitted by mosquitoes.

back 50

B. are responsible for scabies.

front 51

51. Fleas
A. may transmit Yersinia pestis.
B. may transmit Lyme disease.
C. may transmit a toxin.

back 51

A. may transmit Yersinia pestis.

front 52

52. Nematodes
A. are roundworms.
B. are found in the gastrointestinal tract or the blood.
C. are carried by bacteria.
D. have flat segmented bodies.
E. are roundworms AND are found in the gastrointestinal tract or the blood.

back 52

E. are roundworms AND are found in the gastrointestinal tract or the blood.

front 53

53. Tapeworms
A. have a complicated digestive system.
B. do not have a digestive system.
C. may be transmitted by eating undercooked meat.
D. have a larval stage known as a cercaria.
E. do not have a digestive system AND may be transmitted by eating undercooked meat.

back 53

E. do not have a digestive system AND may be transmitted by eating undercooked meat.

front 54

63. Why would all protozoa be expected to require large amounts of water in their habitats?
A. They require water to avoid dehydration and death. Without being in water, they would quickly dehydrate (due to their small size) and die.
B. They require water to help them during photosynthesis by providing an electron source.
C. They require water to move around in to seek food particles. Without water, they would be unable to move at all.
D. All of the above are correct.

back 54

A. They require water to avoid dehydration and death. Without being in water, they would quickly dehydrate (due to their small size) and die.

front 55

64. Are all fungi detrimental (bad) for other organisms?
A. Yes-think of molds that destroy plant crops, or fungal infections that cause athlete's foot. All fungi are bad for organisms they colonize.
B. Yes-fungi feed directly on organic material (oftentimes killing it or feeding on it after the original organism has died). As such, they are always bad for other organisms.
C. No-fungi are sometimes good, sometimes bad for other organisms. It really depends on which fungus you're talking about and the relationship it has with the other organism. Some fungi, for example, can form a symbiotic relationship with plant roots that increases their nutrient and water absorption. This is good.
D. No-fungi are ALWAYS good when they interact with other organisms. There's never a downside or negative aspect to such interactions. Both sides always benefit from the relationship.

back 55

C. No-fungi are sometimes good, sometimes bad for other organisms. It really depends on which fungus you're talking about and the relationship it has with the other organism. Some fungi, for example, can form a symbiotic relationship with plant roots that increases their nutrient and water absorption. This is good.

front 56

65. Why were the slime molds and water molds once considered to be fungi?
A. Early identification methods focused on appearances rather than biochemical characteristics.
B. Early identification methods focused on appearances rather than genetic similarities/differences.
C. They ARE fungi.

back 56

B. Early identification methods focused on appearances rather than genetic similarities/differences.

front 57

66. How would increased travel lead to increased spread of multicellular eukaryotic parasites?
A. Many eukaryotic parasites are transmitted directly from person to person via airborne transmission-so getting an infected individual onto a plane of susceptible individuals would increase spread.
B. Many eukaryotic parasites depend on vectors (often small blood-sucking insects) for transmission-so moving an infected individual into an area with new populations of vectors and new susceptible humans would increase the spread of the illness.

C. It really would NOT-most individuals are screened for parasitic infections prior to traveling out of highly infected areas. We also have quarantine abilities at customs stations for individuals entering the United States.

back 57

B. Many eukaryotic parasites depend on vectors (often small blood-sucking insects) for transmission-so moving an infected individual into an area with new populations of vectors and new susceptible humans would increase the spread of the illness.

front 58

Why would it be more difficult to treat diseases in humans caused by members of the Eukarya than diseases caused by the Bacteria?

A. Multicellular organisms always have their own immune systems to contend with-so any treatment we develop needs to overcome this built-in protection mechanism in such organisms.
B. Since bacteria are so much simpler (being single-celled), they are inherently easier to kill off than multi-cellular eukaryotic microbes.
C. Eukaryotic microbes use many of the same enzymes and systems as humans-so we lose the ability to target certain molecules that might be present ONLY in the cell type we want to eliminate. There's too much overlap when both organisms are eukaryotic.
D. Eukaryotic microbes (unlike prokaryotes) often secrete compounds that breakdown and eliminate drugs used against them. This makes them much harder to effectively eliminate than bacteria.

back 58

C. Eukaryotic microbes use many of the same enzymes and systems as humans-so we lose the ability to target certain molecules that might be present ONLY in the cell type we want to eliminate. There's too much overlap when both organisms are eukaryotic.