There is a deep truth within every truth? This makes no sense to me. Kindly explain that statement. "'There is a deep blue in every blue". Well, duh. Of course, it's
blue, after all! Also, there are some truths that are simply intuitive without being counter-intuitive, and some that are counter-intuitive without being intuitive. So, we can see that your statement above that all truths are always both intuitive and counter-intuitive is obviously incorrect...
This question shows that you know very little about evolution by natural selection (EBNS). Genetic mutation is not only a integral part of the gene copying process, but it occurs with highly-predictable frequency. This process of mutation, which is the adding of new genetic material onto the existing genetic material, is why there is such vast variety of life on this planet and why it is always evolving. From Wiki -
http://en.wikipedia.org/wiki/Evolution
Mutation
Further information:
Mutation
Duplication of part of a
chromosome.
Mutations are changes in the DNA sequence of a cell's genome. When mutations occur, they can either have no effect, alter the
product of a gene, or prevent the gene from functioning. Based on studies in the fly
Drosophila melanogaster, it has been suggested that if a mutation changes a protein produced by a gene, this will probably be harmful, with about 70% of these mutations having damaging effects, and the remainder being either neutral or weakly beneficial.
[72]
Mutations can involve large sections of a chromosome becoming
duplicated (usually by
genetic recombination), which can introduce extra copies of a gene into a genome.
[73] Extra copies of genes are a major source of the raw material needed for new genes to evolve.
[74] This is important because most new genes evolve within
gene families from pre-existing genes that share common ancestors.
[75] For example, the human eye uses four genes to make structures that sense light: three for
colour vision and one for
night vision; all four are descended from a single ancestral gene.
[76]
New genes can be generated from an ancestral gene when a duplicate copy mutates and acquires a new function. This process is easier once a gene has been duplicated because it increases the
redundancy of the system; one gene in the pair can acquire a new function while the other copy continues to perform its original function.
[77][78] Other types of mutations can even generate entirely new genes from previously noncoding DNA.
[79][80]
The generation of new genes can also involve small parts of several genes being duplicated, with these fragments then recombining to form new combinations with new functions.
[81][82] When new genes are assembled from shuffling pre-existing parts,
domains act as modules with simple independent functions, which can be mixed together to produce new combinations with new and complex functions.
[83] For example,
polyketide synthases are large enzymes that make antibiotics; they contain up to one hundred independent domains that each catalyse one step in the overall process, like a step in an assembly line.
[84]