Answer:
This reaction shows that all of the atoms in the glucose and oxygen gas reactants are accounted for in the carbon dioxide and water products. The reactions of cellular respiration can be grouped into three stages: glycolysis, the Krebs cycle (also called the citric acid cycle), and electron transport.J
Explanation:
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Answer/ Explanation:
The original DNA sequence has a point mutation changing a G to a T. The resulting mRNA produced is always complementary to the DNA from which it is synthesised, so the original mRNA sequence has a T, whereas the mutated mRNA has a U. The tRNA is complementary to the mRNA, so the original has a G, and the mutated has a T.
<h3>Original DNA</h3>
GTTGGCGAATGAACGGAGGCTGACGTCTAAGCCTAGAAAAATTGG
RNA
CAACCGCUUACUUGCCUCCGACUGCAGAUUCGGAUCUUUUUAACC
tRNA
GUUGGCGAAUGAACGGAGGCUGACGUCUAAGCCUAGAAAAAUUGG
<h3>_______________________________________________</h3><h3>Mutated DNA</h3>
GTTGGCGAATGAACTGAGGCTGACGTCTAAGCCTAGAAAAATTGG
RNA
CAACCGCUUACUUGUCUCCGACUGCAGAUUCGGAUCUUUUUAACC
tRNA
GUUGGCGAAUGAACTGAGGCUGACGUCUAAGCCUAGAAAAAUUGG
This is a point mutation called a substitution. This does not affect the entire sequence of the protein, because the mutation is "in frame" meaning the mRNA sequence is still read in the same way by the protein producing machinery. However, it does change the 5th codon from UGC to UGU. If we look up the genetic code, we can see that both of these codons code for cysteine, so there will be no change in the amino acid sequence of the protein
The atmospheric pressure drops so the partial pressure of O2 drops proportionately. The hemoglobin must circulate faster to deliver the same quantity of oxygen to working muscles' mitochondria for cellular respiration. This increased basal circulation rate places a greater demand for oxygen to support it, which triggers in increase in red blood cell population so there is more hemoglobin to deliver O2. With more RBCs the circulation rate once more slows to the old basal rate.
10^{-8} mutations per nucleotide. If there are 100 million nucleotides per haploid genome, there are 200 million nucletides per diploid genome. Six mutations divided by 200 million is 10^{-8}.