One molecule of Glucose produces 38 molecules of ATP through the ETC in presence of enough oxygen.
<h3><u>Explanation:</u></h3>
To know the number of ATP produced from a molecule of glucose, we need to know the total amount and the type of products produced in the 3 individual steps of an aerobic respiration.
1. <u>Glycolisis</u> - In glycolisis, one molecule of glucose is converted into two molecules of pyruvate with production of 2 ATP molecules and 2 molecules of NADH.
2. <u>Pyruvate Dehydroogenase step</u> - Two molecules of pyruvate produce a total of 2 NADH.
2. <u>Kreb's Cycle</u> - In Kreb's Cycle, two molecules of Acetyl CoA produce a total of 6 NADH, 2FADH and 2 GTP which is again equivalent to 2 ATP.
In the ETC, each NADH is converted into 3 molecules of ATP and each FADH is converted into 2 molecules of ATP.
In the whole process till now, total of 10 molecules of NADH, 2 molecules of FADH and 4 ATPs.
So total number of ATP produced is 10*3 + 2*2 + 4 = 30+4+4 =38.
Since the sun is only out during the day, the heat from the sun warms up the temperature, longer days means more sun time, more sun time means more heat
Answer:
The correct answer is E.
Explanation:
The options are incomplete, here are the complete options:
A) Both populations would be large and diverse, retaining all of their original alleles in their original frequencies.
B) Both populations would be very small and genetically uniform, having lost many of their original alleles.
C) The population in location A would be large and diverse, retaining all of its alleles in their original frequencies. The population in location B would have reduced genetic diversity and different allele frequencies than it did originally.
D) The population in location A would be large but would show a reduction in genetic diversity and altered allele frequencies. The population in location B, however, would retain its original genetic diversity and allele frequencies.
E) The population in location A would be large, while the population in location B would be small, but both would be equally diverse genetically and have the same allele frequencies as one another.
The answer is E because upon examining the example given in the question, we can say that after reproducing several generations, the flowers in both locations are going to go back to their original numbers and the location A population will be large, location B population will be small but they will not be any different genetically than they were before. They will retain their allele frequencies and differences.
I hope this answer helps.
<span> Earthquakes/Tsunamis</span>
