All 50 Uses
DNA
in
Jurassic Park
(Auto-generated)
- When, in 1953, two young researchers in England, James Watson and Francis Crick, deciphered the structure of DNA, their work was hailed as a triumph of the human spirit, of the centuries-old quest to understand the universe in a scientific way.
p. x.8DNA = genetic instructions that influence biological traits
- The company seemed obviously focused on animals; and they had hired researchers with an interest in the past—paleobiologists, DNA phylogeneticists, and so on.†
p. 72.9
- With each passing year, the manipulation of DNA had grown easier.
p. 73.9 *DNA = genetic instructions that influence biological traits
- By 1985, it seemed possible that quagga DNA might be reconstituted, and a new animal grown.†
p. 73.9
- If so, it would be the first creature brought back from extinction solely by reconstruction of its DNA.†
p. 74.1
- Of course, no dinosaur DNA was known to exist anywhere in the world.†
p. 74.1
- But by grinding up large quantities of dinosaur bones it might be possible to extract fragments of DNA.†
p. 74.2
- Formerly it was thought that fossilization eliminated all DNA.†
p. 74.2
- If enough DNA fragments were recovered, it might be possible to clone a living animal.†
p. 74.3
- Of course, if we could obtain examples of their dinosaurs, we could reverse engineer them and make our own, with enough modifications in the DNA to evade their patents.†
p. 75.3
- I'm talking about a legitimate source of their DNA.†
p. 75.5
- Bioengineered DNA was, weight for weight, the most valuable material in the world.†
p. 76.4
- Dodgson wanted more than bacterial DNA; he wanted frozen embryos, and he knew InGen guarded its embryos with the most elaborate security measures.†
p. 76.9
- Grant said, "My only question is, where'd they get the DNA?"†
p. 95.1
- Grant was aware of serious speculation in laboratories in Berkeley, Tokyo, and London that it might eventually be possible to clone an extinct animal such as a dinosaur—if you could get some dinosaur DNA to work with.†
p. 95.2
- The problem was that all known dinosaurs were fossils, and the fossilization destroyed most DNA, replacing it with inorganic material.†
p. 95.3
- Of course, if a dinosaur was frozen, or preserved in a peat bog, or mummified in a desert environment, then its DNA might be recoverable.†
p. 95.3
- Ellie said, "You can't reproduce a real dinosaur, because you can't get real dinosaur DNA."†
p. 95.5
- "I'm sure you want to see this room," Ed Regis said, "but first, let's see how we obtain dinosaur DNA."†
p. 110.4
- But you're probably wondering where our dinosaur DNA comes from.†
p. 110.8
- Using the Loy antibody extraction technique, we can sometimes get DNA directly from dinosaur bones.†
p. 110.9
- We need the entire dinosaur DNA strand in order to clone.†
p. 111.3
- If this insect has any foreign blood cells, we may be able to extract them, and obtain paleo-DNA, the DNA of an extinct creature.†
p. 111.8
- If this insect has any foreign blood cells, we may be able to extract them, and obtain paleo-DNA, the DNA of an extinct creature.†
p. 111.8
- Actually, dinosaur DNA is somewhat easier to extract by this process than mammalian DNA.†
p. 111.9
- Actually, dinosaur DNA is somewhat easier to extract by this process than mammalian DNA.†
p. 111.9
- The reason is that mammalian red cells have no nuclei, and thus no DNA in their red cells.†
p. 111.9
- How we identify the DNA we have extracted.†
p. 112.4
- "Here you see the actual structure of a small fragment of dinosaur DNA," Wu said.†
p. 113.1
- This amount of DNA probably contains instructions to make a single protein—say, a hormone or an enzyme.†
p. 113.2
- The full DNA molecule contains three billion of these bases.†
p. 113.3
- If we looked at a screen like this once a second, for eight hours a day, it'd still take more than two years to look at the entire DNA strand.†
p. 113.4
- This is a typical example, because you see the DNA has an error, down here in line 1201.†
p. 113.5
- Much of the DNA we extract is fragmented or incomplete.†
p. 113.6
- It'll cut the DNA, using what are called restriction enzymes.†
p. 113.7
- Here is the same section of DNA, with the points of the restriction enzymes located.†
p. 113.8
- Now we are finding a fragment of DNA that overlaps the injury area, and will tell us what is missing.†
p. 114.3
- The dark bars you see are restriction fragments—small sections of dinosaur DNA, broken by enzymes and then analyzed.†
p. 114.7
- And here is the revised DNA strand, repaired by the computer.†
p. 115.1
- Then are you working with the entire DNA strand?†
p. 115.1
- But, even so, the DNA molecule is too big.†
p. 115.2
- We look only at the sections of the strand that differ from animal to animal, or from contemporary DNA.†
p. 115.3
- A DNA molecule.†
p. 116.2
- Nobody could be analyzing a DNA molecule.†
p. 116.3
- He knew biologists were talking about the Human Genome Project, to analyze a complete human DNA strand.†
p. 116.3
- Or maybe they're just analyzing DNA fragments, but they've got RAM-intensive algorithms.†
p. 116.6
- "Well, my guess is they're doing something with DNA," Barney said.†
p. 116.7
- Nedry turned back to the group as Grant asked, "And once the computer has analyzed the DNA, how do you know what animal it encodes?"†
p. 117.3
- DNA evolves over time, like everything else in an organism—hands or feet or any other physical attribute.†
p. 117.3
- So we can take an unknown piece of DNA and determine roughly, by computer, where it fits in the evolutionary sequence.†
p. 117.4
Definitions:
-
(1)
(DNA) a microscopic part of an organism that has genetic information that determines inherited traits such as hair color or height (deoxyribonucleic acid)
- (2) (meaning too rare to warrant focus)