Blue nocturne
Balloooooooooooooon
Originally posted by Arachnoidfreak
Take the evolution from monkey to man. Monkies have skulls, spines, skeletons, nerves, and a brain, with two hands and two feet, with twenty digits. Humans have the exact same thing, except just slightly different. Bigger brains, straighter spine, longer limbs, more rigid digits.
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Ah, your describing homology, the belief that organisms that have similar organs have same ancestory, the problem with that logic is that certian creatures may have similar organs yet are completely take an octopus and man , two extremely different species, between which no evolutionary relationship is likely even to be proposed, yet the eyes of both are very much alike in terms of their structure and function.
Another striking example is the amazing resemblance and the structural similarity observed in the eyes of different creatures. For example, the octopus and man are two extremely different species, between which no evolutionary relationship is likely even to be proposed, yet the eyes of both are very much alike in terms of their structure and function
Originally posted by Arachnoidfreak
You're trying to disprove an entire theory with ONE argument, when evolution is just too complex to work that way.
Homology is simple, they look a like therefore they are alike are related, but where's the proof.
Evil dead if it has not been observed how does it hold up, evolutionist only speculate macro-evolution happens over millions of years the fossil record doesn't help that fact but it's still incomplete.
Also read this:
In 1904, Walter S. Sutton, an American cytologist, decided there might be some connection between Gregor Mendel's 1860s research and the newly discovered chromosomes with their genes. A major breakthrough came in 1906, when Thomas Hunt Morgan, a Columbia University zoologist, conceived the idea of using fruit flies (Drosophila melanogaster) for genetic research. This was due to the fact that they breed so very rapidly, require little food, have scores of easily observed characteristics and only a few chromosomes per cell.
"The fly could be bred by the thousands in milk bottles. It cost nothing but a few bananas to feed all the experimental animals; their entire life cycle lasts 10 days and they have only four chromosomes."—*R. Milner, Encyclopedia of Evolution (1990), p. 169.
Later still, fruit flies began to be used in mutational research. What that research revealed—settled the question for all time as to whether evolution could successfully result from mutations. And those little creatures should be able to settle the matter, for it takes only days for a fruit fly to reach maturity; after that it steadily reproduces young. Each of its offspring matures in a few days, and the generations multiply rapidly. What it would take mammals tens of thousands of years to accomplish, the humble fruit flies can do within a very short time.
According to evolution, man has lived on the earth for a little over a million years. Yet experiments on fruit flies have already exceeded the equivalent of a million years of people living on earth. Here is a clear statement of the problem: "The fruit fly has long been the favorite object of mutational experiments because of its fast gestation period [twelve days]. X rays have been used to increase the mutation rate in the fruit fly by 15,000 percent. All in all, scientists have been able to "catalyze the fruit fly evolutionary process, such that what has been seen to occur in Drosophila is the equivalent of the many millions of years of normal mutations and evolution."
"Even with this tremendous speedup of mutations, scientists have not been able to come up with anything other than another fruit fly. Most important, what all these experiments demonstrate is that the fruit fly can vary within certain upper and lower limits but will never go beyond them. For example, Ernst Mayr reported on two experiments performed on the fruit fly back in 1948.
"In the first experiment, the fly was selected for a decrease in bristles and, in the second experiment, for an increase in bristles. Starting with a parent stock averaging 36 bristles, it is possible after thirty generations to lower the average to 25 bristles, "but then the line became sterile and died out." In the second experiment, the average number of bristles were increased from 36 to 56; then sterility set in. Mayr concluded with the following observation: Obviously any drastic improvement under selection must seriously deplete the store of genetic variability . . The most frequent correlated response of one-sided selection is a drop in general fitness. This plagues virtually every breeding experiment."—*Jeremy Rifkin, Algeny (1983), p. 134.