I’d go with true. For example membrane receptor proteins would use signals from both
<h2>Answer: </h2><h2></h2><h3>Its hard to see the things but I`m pretty sure it would go...</h3><h3 /><h3>Next 3rd picture </h3><h3 /><h3>Then 4th picture</h3><h3 /><h3>Then 2sd picture </h3><h3 /><h3>Then the 1st picture </h3><h3 /><h3>Why I think it`s this way is because of the circle of life...</h3><h3 /><h3>I hope this helps (～￣▽￣)～</h3><h3> </h3>
Answer:
Cross overs can lead to formation of chromosome pairs that have no mutant allele.
Explanation:
Cross overs can lead to formation of chromosome pairs that have no mutant allele.
For example -
Suppose "X" is a mutant allele and "x" is a mutant free allele.
Now when two homologous chromosomes contains a single mutant allele in different parts of the chromosome are crossed the following offspring are produced
X x
X XX Xx
x Xx xx
"xx" is a mutant free genotype.
Thus, crossing over can create a single mutation-free chromosome
Answer:
Glycolysis is a series of reactions that take place in the cell cytoplasm. It involves the oxidation of glucose into pyruvate (a 3 carbon compound), that produces (overall)ATP and reduced NAD: an enzyme that carries hydrogen. The number of carbons in each of these compounds is indicated in the green circle.
The carriers FAD and NAD bring the hydrogen and it separates to H+ and electrons (e-). The electrons pass from carrier to carrier and loose energy. This is used to synthesize ATP.
However, there are a lot of hydrogen ions, that unless they are removed, they'll cause a large increase in pH. Therefore, oxygen reacts with the ions to remove it and produce water. This is what the oxygen you inhale is used for (in terms of respiration).
Explanation:
:) hope that helps
:) Dez-tiny
