Clastic Dikes
In many places throughout the geologic column, there are what are called clastic dikes. A clastic dike is where a layer of sediment beneath another layer was pushed up in spikes through the layers above it like toothpaste. This only happens in modern flooding and mudslides if the lower mud layer was still soft and recently deposited just before layers were added on top of it. The extreme pressure of sedimentary layering on top of a soft layer causes the soft layer to squirt up at intervals through the layers above it.8 None of this could possibly happen if the layers were laid down over millions of years. Why not? Because in a relatively short time, sedimentary layers turn to rock and solid rock does not squirt regardless of the pressure applied to it. It may fracture under pressure, but it does not flow.
Big Horn Basin and Beartooth Butte
Big Horn Basin and Beartooth Butte, located near Yellowstone National Park, pose yet another interesting problem. Beartooth Butte itself is dated to be around 300 to 400 million years old. It contains many fossils. However, Beartooth Butte matches the same layers located much lower down in Bighorn Basin. The standard explanation is that millions of years ago, Beartooth Butte was lifted up higher during a land upthrust. The surrounding layers were weathered away over time, leaving Beartooth Butte as a lone formation. However, if this scenario were true, then the layers that Beartooth Butte came from would have been solid rock before the upthrust. If this is true, then why did this upthrust cause a warping of solid rock along the Beartooth Butte side of Bighorn Basin? 4 The Precambrian rock did not warp up during the upthrust. So, why did the solid rock above the Precambrian rock warp upward during the upthrust if in fact it was solid
taking millions of years to form? A more logical explanation seems to be that the layers were not solid and in fact were recently and rapidly formed just before a very rapid upthrust of the Precambrian under the Beartooth Butte location. The water, which laid down these sedimentary layers, rapidly rushed off of the upthrusted area. This rapid runoff of water quickly eroded the area leaving only Beartooth Butte standing to dry as the water receded. Logically, everything had to happen quickly, and not over long periods of time as is the current popular theory for Beartooth Butte.
Continental Drift
Now, lets take a look at continental drift. According to todays popular scientists, the continents of today were once connected in an original continent by the name of Pangea. Very slowly, over the course of two hundred million years, the continents split apart and drifted away from each other to their present-day positions. There is obvious evidence to support this theory. As one looks at a global map of the world, it is clear that the continents do in fact seem to fit together like a giant puzzle. Geologic layering and coal samples are very similar at the separation zones of the various continents. There is little doubt that continental drift did occur, and that at one time the various continents were in fact connected. In fact, the drift is still occurring at about 1 inch per year and in some places as much as 2.5 inches per year. However, what does seem strange, at least to me, is the vast timeframe involved. Over relatively short time periods, erosion, deposition, and sedimentary river delta deposits change edges of landmasses significantly. For example, three hundred years before Christ, Ephesus was a seaport city on the coast of the Aegean Sea in Asia Minor. Within only 800 years, the city was no longer a port city, but an inland city. The historian Pliney said that, In ancient times the sea used to wash up to the temple of Diana [in Ephesus]. The reason for this regression of the sea is that the relatively small rivers of Cayster and Meander run near the city. Over the years they deposited so much sediment that the land extended some several miles in a relatively short time. Today Ephesus is located about five miles inland.
With all the erosion and on all the various continents and rivers depositing deltas like the ones at Ephesus, should the continents not, over a 200 million year period, loose the shape of their ancient coastlines? Currently, according to the US Army Corp of Engineers, the United States coastlines are in serious danger. The Louisiana coastline is being lost at a rate of at least 25sq. miles per year. Both the eastern and western United States are being eroded at rates fast enough to warrant millions of dollars spent on coastal erosion prevention at an annual cost of around $500 million. Florida alone spends over 8 million dollars annually on coastal erosion prevention.11 In just over 50 years, some of the coastlines in Washington State have regressed over 300 meters.12 The coastline of Texas is being eroded at a rate of between 1 and 50 feet per year depending on location.13 The same is true for the eastern and western coastal countries of Africa who depend on the stability of their coasts for tourism. Japan is spending billions of dollars to preserve its coasts from erosion. Every coastal country in the world is worried about erosion. So, knowing this, let us be very conservative and say that an average coastline changes only one centimeter per year. This would not be enough erosion to worry anyone right? However, how much change would that be in 200 million years? The change would be two thousand kilometers (1,200 miles)
. Enough to erode (or deposit) half way through the United States! This does not appear to be the case though. The coastlines of the various continents still match up very well
.not to mention the fact that the continents themselves have not been washed away within this time. I mean, judging by the current rate of erosion, Louisiana would have been subjected to 5 billion square miles of erosion/deposition in 200 million years. That is more than 300 times the size of the entire North American Continent (15 million square miles)! That is actually fifteen times more land than the entire surface area of the Earth itself
to include that covered by water (317 million square miles)! I am not saying that rates of erosion do not fluctuate and change, but it seems fairly obvious that with even minimal amounts of coastal erosion, the continents of today would not match up so easily if they had separated from each other over 200 million years ago. The evidence does not appear to fit the theory. An extremely rapid continental drift in the recent past seems much more likely. A great deal of sudden energy would be required to cause such a rapid and global continental drift. Such a sudden release of energy would most likely cause incredible global catastrophe. Massive floods, earthquakes, and volcanoes would occur suddenly on a global scale.
So, what scenario does the current worldwide geologic column fit the best
a slow and ancient formation or a recent and rapid formation?
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with all of the documentation and everything how bout it