@Leopold
I've read a few of your posts and it seems you're trying to use absence of sufficient "transitional" fossils to "prove" that evolution theory is wrong, correct?
By the way, I haven't read the whole thread and didn't see what definition of "species" you're working with. What makes one species different from another to you? Morphology? Behavior? Genetics? Interbreeding? Some combination thereof?
Let's start with genetics:
http://www.genomenewsnetwork.org/articles/04_00/island_mice.shtml
It normally takes thousands to millions of years for one species of animal to diverge to become two. On Madeira, one species may have evolved into six in the space of just 500 years.
Britton-Davidian, an evolutionary biologist at Université Montpellier II in Montpellier, France, showed that populations of Maderian mice have between 22 and 30 chromosomes, even though their ancestors, who first arrived with the Portugese in the 15th century, had 40.
Are these mice populations different "species"? If so, where are the "transitional" fossils? Oh yeah, fossilization takes more than six hundred years... So by your logic this evolution simply must not have occurred, right?
How about morphology?
http://en.wikipedia.org/wiki/Peppered_moth
The evolution of the peppered moth over the last two hundred years has been studied in detail. At the start of this period, the vast majority of peppered moths had light coloured wing patterns which effectively camouflaged them against the light-coloured trees and lichens upon which they rested. However, due to widespread pollution during the Industrial Revolution in England, many of the lichens died out, and the trees which peppered moths rested on became blackened by soot, causing most of the light-coloured moths, or typica, to die off due to predation. At the same time, the dark-coloured, or melanic, moths, carbonaria, flourished because they could hide on the darkened trees.
Since then, with improved environmental standards, light-coloured peppered moths have again become common, and the dramatic change in the peppered moth's population has remained a subject of much interest and study. This has led to the coining of the term "industrial melanism" to refer to the genetic darkening of species in response to pollutants. As a result of the relatively simple and easy-to-understand circumstances of the adaptation, the peppered moth has become a common example used in explaining or demonstrating natural selection to laypeople and classroom students.
By my definition this does not represent speciation but certainly demonstrates evolution and adaptation. Do you agree? If so, how do you explain the lack of "transitional" fossils?
Here's another
very contemporary example involving both external and internal morphology as well as social behavior:
http://www.sciencedaily.com/releases/2008/04/080417112433.htm
Apr. 18, 2008 — In 1971, biologists moved five adult pairs of Italian wall lizards from their home island of Pod Kopiste, in the South Adriatic Sea, to the neighboring island of Pod Mrcaru. Now, an international team of researchers has shown that introducing these small, green-backed lizards, Podarcis sicula, to a new environment caused them to undergo rapid and large-scale evolutionary changes.
“Striking differences in head size and shape, increased bite strength and the development of new structures in the lizard’s digestive tracts were noted after only 36 years, which is an extremely short time scale,” says Duncan Irschick, a professor of biology at the University of Massachusetts Amherst. “These physical changes have occurred side-by-side with dramatic changes in population density and social structure.”
Leopold, do you agree that this represents "rapid and large-scale evolutionary changes"? If so, where are the "transitional" fossils you need for proof?
Interbreeding? Leopold will undoubtably refuse to accept these examples as evidence of "evolution" because the referenced populations may still interbreed, right? Don't like to generalize evolution from allopatric speciation?
Well, we may have to go back a bit further but still only a blink of the eye compared to the history of life on the planet...
http://evolution.berkeley.edu/evolibrary/news/090301_cichlidspeciation
The physics of light affects not just how blue water looks to us, but how the animals living in the world's oceans, lakes, and rivers are able to find food and each other — and this, in turn, can impact their evolution. Natural selection favors traits that perform well in local environmental conditions. Many fish species, for example, have evolved vision that is specifically tuned to see well in the sort of light available where they live. But even beyond simple adaptation, the physics of light can lead to speciation. In fact, biologists recently demonstrated that the light penetrating to different depths of Africa's Lake Victoria seems to have played a role in promoting a massive evolutionary radiation. More than 500 species of often brightly colored cichlid fish have evolved there in just a few hundred thousand years!
To understand how the physics of light can promote speciation, picture a lake...
...
Although the scenario described above is a hypothetical one based on evolutionary theory, biologists have now discovered strong evidence that this process has actually occurred in the cichlid fish of Lake Victoria. They've observed, along with other lines of evidence, many neighboring species pairs in which the surface-dwellers tend to be blue and blue-light-sensitive, while the deeper fish tend to be red and red-light-sensitive. Biologists are particularly excited about this discovery because it may represent an unusual mode of speciation. The sort of speciation that is easiest to gather evidence about is allopatric speciation — speciation that occurs partly through geographic isolation of the emerging species. In contrast, these cichlid species may have evolved without any physical separation at all.
(Emphasis mine)
Which facets of true evolution does this example not illustrate, hmmmm leopold? But again, where are the "transitional" fossils?
I also seem to recall an issue with the ability of evolution to "predict" anything. Keep in mind that speciation often involves many mutations leading up to significant change, there is no one "defining" event.
http://phys.org/news202970888.html#jCp
The yellow-bellied three-toed skink (Saiphos equalis) is one of only three reptiles known to have different methods of reproduction in different places. In the coastal areas of New South Wales (NSW), near Sydney, Australia, the skink lays eggs, while in the northern highlands of NSW, it tends to favor giving birth to live young. Scientists say we are witnessing evolution in action, with the skink half-way in its transformation from an egg-layer to a bearer of live young.
Here is a prediction for you: These populations will continue to differentiate to the point where they are completely different species.
Do you think that is probable Leopold? It's happened before...
(From the same article)
Live birth is known to have evolved 132 times among animals with a backbone, 98 of these in reptiles, which Stewart said suggests that while it seems a complex transition, “it’s looking like it might be much simpler in some cases than we thought.” Two other species of reptiles are known to use both types of reproduction: a European lizard and another species of skink.
Does this represent an example of evolution? Are we watching speciation in action? If so, where are the "transitional" fossils necessary to prove it?
Here's another prognostication: Leopold will continue to deny, deny, deny without any logical refutation. He will stick to his myopic and deluded viewpoint no matter what evidence is presented.