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| 1 . |
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The unpaired nucleotides produced by the action of restriction enzymes are referred to as _____. (Activity: Restriction Enzymes)
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| 2 . |
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The sticky end of the DNA restriction fragment shown here will pair with a DNA restriction fragment with the sticky end _____. (Activity: Restriction Enzymes) 
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| 3 . |
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In order to insert a human gene into a plasmid, both must _____ (Activity: Cloning a Gene in Bacteria)
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| 4 . |
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What enzyme forms covalent bonds between restriction fragments? (Activity: Cloning a Gene in Bacteria)
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| 5 . |
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Click on the diagram to start the animation.
What name is given to the process shown in this animation? (Activity: Cloning a Gene in Bacteria)
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| 6 . |
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Click on the diagram to start the animation.
What name is given to the process shown in this animation? (Activity: Cloning a Gene in Bacteria)
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| 7 . |
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Click on the diagram to start the animation. This is an animation of gel electrophoresis. Which of these DNA molecules is the shortest? (Activity: Gel Electrophoresis of DNA)
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| 8 . |
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In gel electrophoresis DNA molecules migrate from _____ to _____ ends of the gel. (Activity: Gel Electrophoresis of DNA)
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| 9 . |
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In this example the marker DNA includes fragments that have 23,130, 9,416, 6,557, 4,361, 2,322, 2,027, and 564 base pairs. Approximately how many base pairs are in the DNA fragment indicated by the letter A? (Activity: Analyzing DNA Fragments Using Gel Electrophoresis) 
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| 10 . |
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In this example the marker DNA includes fragments that have 23,130, 9,416, 6,557, 4,361, 2,322, 2,027, and 564 base pairs. Approximately how many base pairs are in the DNA fragment indicated by the letter B? (Activity: Analyzing DNA Fragments Using Gel Electrophoresis) 
| | between 23,130 and 9,416 base pairs |
| | between 9,416 and 6,557 base pairs |
| | between 6,557 and 4,361 base pairs |
| | between 4,361 and 2,322 base pairs |
| | between 2,322 and 2,027 base pairs |
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| 11 . |
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DNA fragment B consists of _____ base pairs. (Activity: Analyzing DNA Fragments Using Gel Electrophoresis) 
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| 12 . |
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DNA fragment A consists of _____ base pairs. (Activity: Analyzing DNA Fragments Using Gel Electrophoresis) 
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| 13 . |
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Which of these genes are located on the q arm of chromosome 17? (Activity: The Human Genome Project: Human Chromosome 17) 
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| 14 . |
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The RP13 gene of chromosome 17 codes for a protein _____. (Activity: The Human Genome Project: Human Chromosome 17)
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| 15 . |
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The gene that codes for gastrin is located on the _____ of chromosome 17. (Activity: The Human Genome Project: Human Chromosome 17) 
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| 16 . |
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The TP53 gene of chromosome 17 codes for a protein _____. (Activity: The Human Genome Project: Human Chromosome 17)
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| 17 . |
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Which of these genes codes for a protein that plays a role in growth? (Activity: The Human Genome Project: Human Chromosome 17)
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| 18 . |
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Which of these genes codes for a protein that plays a role in white blood cell function? (Activity: The Human Genome Project: Human Chromosome 17)
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| 19 . |
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This is a DNA fingerprint exhibiting samples from a victim, two suspects, and the crime scene. Which of these DNA fragments is common to both the victim and Suspect 1? (Activity: DNA Fingerprinting) 
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| 20 . |
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This is a DNA fingerprint exhibiting samples from a victim, two suspects, and the crime scene. Which of these DNA fragments is common to both the victim and Suspect 2? (Activity: DNA Fingerprinting) 
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| 21 . |
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Why is Suspect 1 considered more likely to have committed the crime than Suspect 2? (Activity: DNA Fingerprinting) 
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| 22 . |
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Why is golden rice pale yellow in color? (Activity: Making Decisions About DNA Technology: Golden Rice)
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| 23 . |
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Which of these is a symptom of vitamin A deficiency? (Activity: Making Decisions About DNA Technology: Golden Rice)
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| 24 . |
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Which of these is a vitamin A precursor? (Activity: Making Decisions About DNA Technology: Golden Rice)
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| 25 . |
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The transfer of antibiotic-resistant genes from genetically engineered bacteria to disease-causing bacteria _____. (Activity: Making Decisions About DNA Technology: Golden Rice)
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