Wow, I have no idea.
The new oceanic crust sections (basalt lava from through the midoceanic rift zones) cooled and so became more dense, so that new oceanic crust sank down on the mantle.
As the water slid off the continents, it pushed down upon the vertically shrinking horizontal slabs of cooling basalt, so more weight on the mantle, pushing down. And with the plate subduction and resultant magma emplacements under the continents, the continents were pushed up to further the runoff of Deluge water from the continents into the ocean basins, until equilibrium was established.
As the water slid off the continents, it pushed down upon the vertically shrinking horizontal slabs of cooling basalt, so more weight on the mantle, pushing down. And with the plate subduction and resultant magma emplacements under the continents, the continents were pushed up to further the runoff of Deluge water from the continents into the ocean basins, until equilibrium was established.
Lots of sheet erosion at the end, and trapped surface waters which caused local surface formations.
Many of the layers were pretty well hardened in weeks or months, the rest within a few years.
This is not true. As has been previously stated, the response of a rock (or any material) to stress is determined not only by the rock's composition, but also by temperature, confining pressure and strain rate. Rocks which are deeply buried and which undergo strain at relatively slow rates (as in plate tectonics) can deform in a ductile manner. Fractures form in brittle regimes. By demanding fractures in the presence of folds, you are demanding evidence of the rock undergoing both brittle and ductile deformation simultaneously. While faults often are associated with folds, in fact, the tension on the outside of a fold is often expressed as boudinage structures.IceAgeCivilizations said:To result in no radial tension cracks in the now folded sedimentary layers requires that the sedimentary layers had yet to lithify.
IceAgeCivilizations said:They folded because of runaway plate tectonics during the Deluge, the magma and water for the Deluge came through the midoceanic rift zones, and 80% of magma by weight is water, which was compressed within the mantle of the Earth and released during the Deluge.
First of all, 80% of magma is not water. Second, when you say the water was "compressed within the mantle of the Earth and released during the Deluge," what form do you think the water was in, and why was it so catastrophically released?IceAgeCivilizations said:Carbonates are throughout the geologic column in varying percentages, and limestone layers are where the carbonate content of the rock is near 100%.
If I recall correctly, it is fairly likely that the continents were originally formed in such a way - by the gradual accretion of igneous rock which was more felsic (and hence more buoyant) than the mafic/ultramafic oceanic material. Do you have a specific problem with this idea?IceAgeCivilizations said:Vast sedimentary layers up on the continents "may also be scraped onto continents by subduction." That's just great Laika.
You are wrong here. There are.IceAgeCivilizations said:There are no fossil soil layers, besides no river valleys, in the geologic column.
What other minerals, and where? What form do you think all of this calcium was in? Have any samples of this mineral been preserved?The chalk layers formed quickly, many minerals and much C02 in Deluge water.
There are many examples in the geological record of unconformities and non-conformities, as well as paraconformities, where the depositional hiatus is not clearly apparent. These account for many cases in which vertically adjacent rocks show evidence of very different depositional environments. How does your framework account for them?IceAgeCivilizations said:They were all deposited in water, otherwise, you'd have to sandwich a "desert deposit" sandstone, conformably, between layers of sedimentary rock, how do you do that Houdini?