The gfp gene
a. will be transcribed by ribosomes to produce the gfp protein, which will glow bright fluorescent green color under uv light.
b. will be translated by rna polymerase to produce the gfp mrna. the gfp mrna will be transcribed by ribosomes to produce the gfp protein, which will glow bright fluorescent green color under uv light.
c. will be transcribed by rna polymerase to produce the gfp mrna. the gfp mrna will be translated by ribosomes to produce the gfp protein, which will glow bright fluorescent green color under uv light.
d. will be transcribed by ribosomes to produce the gfp protein, which will give bacterium ampicillin resistance.

In 1959, doctors began using the powerful antibiotic methicillin to treat infections of staphylococcus aureus, but within two years, methicillin-resistant strains of s. aureus (mrsa) appeared. how did the resistant strains of s. aureus emerge? in 1959, doctors began using the powerful antibiotic methicillin to treat infections of staphylococcus aureus, but within two years, methicillin-resistant strains of s. aureus (mrsa) appeared. how did the resistant strains of s. aureus emerge? staphylococcus aureus bacteria that were able to synthesize cell walls using a protein that was not affected by methicillin survived the methicillin treatments and reproduced at higher rates than did other individuals. over time, these resistant individuals became increasingly common. in response to treatment of staphylococcus aureus infections with methicillin, some bacteria began to synthesize cell walls using a protein that was not affected by methicillin. these bacteria survived the methicillin treatments and reproduced at higher rates than did other individuals. over time, these resistant individuals became increasingly common. in response to treatment of staphylococcus aureus infections with methicillin, bacterial populations gradually began to synthesize cell walls using a protein that was not affected by methicillin.