1.
Plate
|
Number of Colonies
|
Color of colonies under room light
|
Color of colonies under UV light
|
- pGLO LB
|
carpet
|
white
|
white
|
- pGLO LB/amp
|
0
|
white
|
white
|
+ pGLO LB/amp
|
150~
|
white
|
white
|
+ pGLO LB/amp/ara
|
70~
|
white
|
Green glowing (only 30 glowed)
|
2.
|
What two new traits do your transformed bacteria have?
| |
Resistance to ampicillin and the ability to glow under a UV light.
| ||
3.
|
Estimate how many bacteria were in the 100 uL of bacteria that you spread on each plate. Explain your logic.
| |
There must have been millions but only some bacteria were able to absorb the plasmid therefore killing the rest off.
| ||
4.
|
What is the role of arabinose in the plates?
| |
Arabinose is the sugar that produces the resistance to ampicillin.
| ||
5.
|
List and briefly explain three current uses for GFP (green fluorescent protein) in research or applied science.
| |
To tack the motion of other molecules
Used to study the Intracellular environment
Locating specific cells
| ||
http://www.livescience.com/16752-gfp-protein-fluorescent-nih-nigms.html
| ||
6.
|
Give an example of another application of genetic engineering.
|
In medicine, genetic engineering has been used to mass-produce insulin, human growth hormones, follistim (for treating infertility), human albumin, monoclonal antibodies, antihemophilic factors, vaccines, and many other drugs.
Source: Boundless. “Applications of Genetic Engineering.” Boundless Microbiology. Boundless, 21 Jul. 2015. Retrieved 22 Jan. 2016 from https://www.boundless.com/microbiology/textbooks/boundless-microbiology-textbook/microbial-genetics-7/genetic-engineering-products-93/applications-of-genetic-engineering-498-6642/
No comments:
Post a Comment