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121 notecards = 31 pages (4 cards per page)

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Chapter 9, 13, 14

front 1

What is the ultimate goal of recombinant DNA

back 1

to improve the organism

front 2

What cuts DNA at specific sequences

back 2

restriction enzyme

front 3

Why must the recipient plasmid be cut with the same restriction enzyme

back 3

to allow for a site in the plasmid for the donor DNA to attach

front 4

How do restriction enzymes cut DNA sequences

back 4

They cut DNA at sites called recognition sites that have specific nucleotide sequences

front 5

In general, how might recombinant DNA technology be used to prevent a genetic disorder caused by a mutation in a single gene

back 5

to insert a desirable gene, remove an undesirable gene, or replace a defective gene with a functioning gene

front 6

What attached the target gene to a desired location

back 6

DNA ligase

front 7

Why would a recombinant DNA molecule be inserted into a host cell

back 7

it can be copied, transcribed, and translated into a desired protein

front 8

restriction enzymes are

back 8

bacterial enzymes that destroy phage DNA

front 9

a population of cells carrying a desired plasmid is called a

back 9

clone

front 10

In recombinant DNA technology, a vector is a self-replicating segment of DNA, such as a plasmid or viral genome

back 10

True

front 11

A plasmid that is used to move pieces of DNA among organisms, such as bacterial, fungal and plant cells

back 11

shuttle vector

front 12

These are important for cloning applications because they can be used to cut DNA at specific nucleotide sequences

back 12

restriction enzymes

front 13

rapidly increases the number of copies of a piece of DNA

back 13

PCR

front 14

sequencing DNA, making copies of a gene to put into another organism, identifying traits that may lead to a genetic disorder

These are all examples of

back 14

PCR

front 15

sequencing a gene, diagnosing a disease, and providing enough DNA for cloning into another organism.

these are all examples of

back 15

PCR

front 16

self-replicating DNA used to transmit a gene from one organism to another

back 16

vector

front 17

a segment of DNA

back 17

restriction fragment

front 18

what is the end goal of PCR

back 18

to quickly increase the number of copies of a specific DNA sequence

front 19

PCR stands for

back 19

polymerase chain reaction

front 20

sequencing a gene, diagnosing a disease, and providing enough DNA for cloning into another organism

back 20

PCR

front 21

How do restriction enzymes cut DNA sequences

back 21

at DNA sites, called recognition sites, that have specific nucleotide sequences

front 22

In general, how might recombinant DNA technology be used to prevent a genetic disorder caused by a mutation in a single gene

back 22

to insert a desirable gene, remove an undesirable gene, or replace a defective gene with a functioning gene

front 23

What attached a target gene to a desired location

back 23

DNA ligase

front 24

Why would a recombinant DNA molecule be inserted into a host cell

back 24

It can be copied, transcribed and translated into a desired protein

front 25

the reaction catalyzed by reverse transcriptase

back 25

mRNA----cDNA

front 26

not an agricultural product made by DNA techniques

back 26

pectinase

front 27

if you have inserted a gene in the Ti plasmid, the next step in genetic engineering is

back 27

inserting the Ti plasmid into Agrobacterium

front 28

use of microorganisms to make desired products, the use of animal cells to make vaccines, and the development of disease resistant crop plants

back 28

biotechnology

front 29

the restriction enzyme EcoRI recognizes sequence GAATTC. What is true of DNA after it is treated with EcoRI

back 29

all of the DNA fragments will have single stranded regions ending in G

front 30

which enzyme would cut this strand of DNA:
GCATGGATCCCAATGC

back 30

BamHI GGATCC
CCCTAGG

front 31

a population of cells carrying a desired plasmid is called a

back 31

clone

front 32

self replicating DNA used to transmit a gene from one organism to another

back 32

vector

front 33

the Human Genome Project, which was completed in 2003, was focused on

back 33

determining the nucleotide sequence of the entire human genome

front 34

place the following steps in the PCR procedure in the correct order.
1- incubate at 94 to denature DNA strands
2-incubate at 72 for DNA synthesis
3- incubate at 60 for primer hybridization

312
132
321
123
213

back 34

132

front 35

what is used to silence specific genes and hold promise for treating cancer or viral disease such as hepatitis b

back 35

RNA interference

front 36

what technique is not used to introduce recombinant DNA into plants

back 36

microinjection

front 37

a source of heat stable DNA polymerase

back 37

Thermus aquaticus

front 38

gene silencing blocks an undesirable product by

back 38

making a double stranded RNA

front 39

to determine where a person has a certain gene a process is involved using a primer and a heat stable DNA polymerase

back 39

PCR

front 40

the use of an antibiotic resistance gene on a plasmid used in genetic engineering makes

back 40

direct selection possible

front 41

the use of suicide genes in genetically modified organisms is designed to

back 41

prevent the growth of the modified organisms in the environment

front 42

a restriction fragment

back 42

a segment of DNA

front 43

what is not involved in making cDNA

back 43

translation

front 44

restriction enzymes are

back 44

bacterial enzymes that destroy phage DNA

front 45

the study of genetic material taken directly from the environment is

back 45

metagenomics

front 46

the term biotechnology refers exclusively to the use of genetically engineered organisms for the production of desired products

back 46

false

front 47

in recombinant DNA technology, a vector is a self replicating segment of DNA, such as a plasmid or viral genome

back 47

true

front 48

the practice of breeding plants and animals for desirable traits is called natural selection

back 48

false

front 49

a shuttle vector is a plasmid that is used to move pieces of DNA among organisms

back 49

true

front 50

nearly all cells naturally take up DNA from their surroundings without chemical treatment

back 50

false

front 51

one of the first commercial success of recombinant DNA technology was the production of human insulin using genetically engineered e coli

back 51

true

front 52

bioinformatics is the use of computer technology to compare and analyze genome sequence

back 52

true

front 53

the Bt toxin has been introduced into some crop plants to make them resistant to insect destruction

back 53

true

front 54

important for cloning applications because they can be used to cut DNA at specific nucleotide sequences

back 54

restriction enzymes

front 55

unmatched recombinant DNA technique and application

back 55

gene silencing: production of subunit vaccines

front 56

why is bakers yeast useful for expressing genetically engineered genes

back 56

yeast cells are eukaryotic and so would likely be successful in expressing eukaryotic genes

front 57

false statement about recombinant DNA

back 57

has limited application because genes of interest cannot be moved from one type of cell to another.

front 58

true statement concerning viruses

back 58

the host range for a virus is determined by the presence or absence of particular components on the surface of a host cell that are required for the virus to attach

front 59

how does specialized transduction differ from lysogency

back 59

the prophase in specialized transduction carries with it pieces of the host chromosomal DNA

front 60

what happens to the packaged DNA of a specialized transduced phage when it infects a new recipient cell

back 60

the host DNA integrates, with the prophage, into the new recipient chromosome

front 61

how can a specialized transduction contribute to the transfer of antibiotic resistant genes in bacterial population

back 61

the prophage takes an antibiotic resistance gene with it and is packaged with the newly synthesized viral DNA

front 62

true statement concerning a lysogenic viral replication cycle

back 62

during lysogency, the viral genome integrates into the host DNA, becoming a physical part of the chromosome

front 63

how are virus different from cells

back 63

they require a host in order to reproduce

front 64

what is the function of the structural elements of a virus

back 64

to package and protect the viral genome

front 65

how do naked viruses differ from enveloped viruses in their attachment/penetration phase

back 65

their nucleic acids are injected into the cell

front 66

which virus employs the use of an RNA dependent RNA polymerase

back 66

+RNA viruses

front 67

which of the following viruses is transcribed from RNA to DNA to RNA during the replication cycle

back 67

retroviruses

front 68

which type of virus would produce viral glycoproteins to be expressed on the host cell membrane

back 68

enveloped viruses

front 69

what can be directly used a messenger RNA

back 69

+RNA

front 70

which step of viral replication are antibodies directly preventing

back 70

attachment

front 71

in which step does the virus acquire an envelop

back 71

release

front 72

what occurs during viral uncoating

back 72

the capsid breaks apart, releasing the viral genome

front 73

how do all viruses differ from bacteria

back 73

virus are not composed of cells

front 74

false statement about viruses

back 74

viruses use their own catabolic enzymes

front 75

viruses are the only know infectious agents that are obligatory intracellular parasites

back 75

false

front 76

what is not used as a criterion to classify viruses

back 76

biochemical tests

front 77

glycoprotein spikes are found on the capsids of all viruses

back 77

false

front 78

viruses that utilize reverse transcriptase belong to the virus families

back 78

hepadvaviridae and retroviridae

front 79

DNA made from an RNA template will be incorporated into the virus capsid of

back 79

hepadnaviridae

front 80

not utilized to culture viruses

back 80

culture media

front 81

bacteriophages and animal viruses do not differ significantly in this step

back 81

biosynthesis

front 82

phage DNA in incorporated into host cell DNA

back 82

lysogency

front 83

lysogency can result in all the following except

back 83

immunity to reinfection by any phage

front 84

the first step in the biosynthesis of a virus with a minus strand of RNA

back 84

synthesis of double stranded RNA from an RNA template

front 85

a viruss ability to infect an animal cell depends primarily upon the

back 85

presence of receptor sites on cell membrane

front 86

the mechanism whereby an enveloped virus leaves a host cell is called

back 86

budding

front 87

bacteriophages derive all the following from the host cell except

back 87

lysozyme

front 88

bacteriophage replication differs from animal virus replication because only bacteriophage replication involves

back 88

injection of naked nucleic acid into the host cell

front 89

generally in an infection caused by a DNA containing virus, the host animal cell supplies all of the following except

back 89

DNA polymerase

front 90

the third step in multiplication of herpesviruses

back 90

uncoating

front 91

the fourth step in multiplication of retroviruses

back 91

synthesis of double stranded DNA

front 92

the third step of a + strand RNA virus

back 92

synthesis of - strand of RNA

front 93

the most conclusive evident that viruses cause cancers is provided by

back 93

cancer following injection of cell free filtrates

front 94

oncogenic viruses

back 94

cause tumors to develop

front 95

what is necessary for replication of a prion

back 95

PrPsc

front 96

an infectious protein

back 96

prion

front 97

which virus is not associated with cancer

back 97

coronavirus

front 98

the study of structural and functional changes that occur in the body as a result of a disease

back 98

pathology

front 99

example of a symbiotic relation known as a mutualism

back 99

e coli within the large intestine

front 100

epidemiology is defined as the study of

back 100

where and when a disease occurs and how it is transmitted

front 101

role of epidemiology

back 101

to learn how to treat and prevent various diseases

front 102

a true statement about the development of infectious disease

back 102

the period of convalescence is the time during which the person regains health and fully recovers

front 103

one effect of washing regularly with antibacterial agents is the removal of normal microbiota. this can result in

back 103

increased susceptibility to disease

front 104

a commensal bacterium

back 104

may also be an opportunistic pathogen

front 105

a true statement about symbiotic relationship

back 105

a least one member must benefit

front 106

transient microbiota differ from normal microbiota in that transient microbiota

back 106

are present for a relatively short time

front 107

Kock observed Bacillus anthracis multiplying in the blood of cattle. what is this condition called

back 107

septicemia

front 108

a pattern of disease where the patient is not experiencing any signs or symptoms

back 108

incubation and convalescence

front 109

what disease is not spread by droplet infection

back 109

botulism

front 110

biological transmission differs from mechanical transmission in that biological transmission

back 110

involves specific diseases

front 111

an example of a fomite

back 111

hypodermic needle

front 112

a cold transmitted by a facial tissue is an example of which form of disease transmission

back 112

indirect contact transmission

front 113

a needlestick is an example of a

back 113

fomite

front 114

a nosocomial infection is

back 114

acquired during the course of hospitalization

front 115

pseudomonas bacterial colonized the bile duct of a patient following his liver transplant surgery. this is an example of

back 115

nosocomial infection

front 116

the science that deals with when disease occur and how they are transmitted is called

back 116

epidemiology

front 117

for a particular disease at a specific time period, morbidity rates should always be equal or greater than mortality rates

back 117

true

front 118

diseases that are referred to as EID have only been discovered in the past fifty years

back 118

false

front 119

compromised hosts are always suffering from suppressed immune systems

back 119

false

front 120

reservoirs of infections are always animate objects

back 120

false

front 121

both normal and transient flora can become opportunistic pathogens

back 121

true