An electron transport chain (ETC) is a series of complexes that transfer electrons from electrondonors to electron acceptors via redox (both reduction and oxidation occurring simultaneously) reactions, and couples this electron transfer with the transfer of protons (H+ ions) across a membrane.
nouth, oesophagus, stomach, duodenum, pancreas, ileum,colon, rectum,anus.
Really, this is a simple and easy question.
To make it easier to understand, consider a population of moths. These moths are originally white. The trees in the area are a color that allow the moths to camouflage to escape predation.
There is a particular woodland that these moths most reside in, but as industrialization increases in the area, the emission of smog increases, which darkens the trees, this changing the moth's habitat. Due to this environmental change, some moths become darker in color due to the smog emissions on the tree bark. Some mlths, however, are still bright in color. Due to this environmental change, the bright-colored moths are not able to survive and reproduce, and their population eventually dies out.
This is one of the rather basic examples of natural selection.
To answer your question, therefore, the population would eventually die out, due to those organisms not having the compatible adaption for their environment, which line up with the natural selection principle.
Hope you find this helpful.
<h2>Frequency of allele </h2>
Explanation:
Hardy Weinberg Equilibrium is used to calculate the allelic as well as genotypic frequency
Allelic frequency of dominant and recessive allele is represented by p and q respectively whereas genotypic frequency of dominant genotype is represented by 
and 
respectively
Given:
H allele (p) = hairy heffalump (dominant)
h allele (q) = hairless heffalump (recessive)
36% of heffalump population is hairless represents the % of recessive genotype, hh () =36%
Calculation of frequency of the h allele (q) :
Frequency of genotype hh () will be: 36/100=0.36 or 0.6*0.6
Frequency of h allele (q) will be 0.6
Binary fission cause Cloning is a hot ethical issue in the scientific community, but bacteria clone themselves all the time. In a process called binary fission, one bacterium doubles its size and genetic material, then splits to produce two identical cells.
