The Record of Creation, Part 23
The Third Day continued.
Now we turn to the ring and canopy theory which has been able to assign clear and logical causes to some of earth’s “mysteries” to see if it can shed any light on this perplexing problem. Again, let us start with the carbon atom and see what pure philosophy would require. We found that very probably carbon was formed from nitrogen during the process of fission and fusion which must have attended the early period of the formation of earth’s materials. We find that carbon is one of the common elements in earth’s crust (the 15th most abundant element), and is included in some form in the deposits of every age, although in bulk it comprises a very small percent of the deposited material, being grouped in with all others that make up 1%. However, in keeping with the law of arrangement of materials according to weight, we would expect the heavier, denser carbons to be deposited first and the lightest carbon last. We would expect the greater deposits in every age to be toward the Polar Regions, and that such deposits would indicate that they were water-laid.
As the collapse of the canopies brought down earth materials on both sea and land, that which was dropped on water would be separated according to specific gravity, and the heavier carbon crystals would sink before the lighter ones, and the lighter ones would move with the currents and the tides further than the heavier ones, but finally come to rest, water-laid. The heavier carbon crystals sinking faster than particles of clay or other material would have less extraneous matter deposited with them than the lighter carbons. Being laid in water, they might well take down with them small organisms or floating vegetation.
Thus, on the Eastern Seaboard of the U.S. we should find the denser coal with less ash content (anthracite) farther east, and the lighter coal, with more ash content (bituminous) further inland, and these beds should diminish in both thickness and quality from their eastern to their western limits. This area was the continental shelf, and under the waters of the Atlantic Ocean during the carboniferous period, and carbon falling into the sea would have been carried by tidal action toward the shores. Note the coal measures still under the sea around the south of the British Isles. East of the Appalachian Range the coal should have been laid down with marine (salt water) fossils, but nearer to the land we would expect refuse from the land vegetation washed down to the sea, and saturated with water, it should have sank to the bottom where the carbon was. Somewhere we would expect in view of the glacial period following the rupturing of a canopy, to find *loess mixed with the carbon, like mud.
This condition should be found in the great central basin with its fairly quiet waters (The North American Inland Sea shown below) rather than in the restless churning waters of the ocean. Along the east side of the Rocky Mountains we would expect to find some anthracite coal and west of that bituminous coal. But whatever anthracite is found, it would not be beyond our expectations to find it where bituminous coal predominates. Since even on the interior of the continents, coal was water-laid during periods of glacial movement, we would expect this period to be of violence and mountain making. These processes involve not only North America, but the whole earth at the same time. Note: The great central basin is in actually comprised of five individual basins.
*Loess is a sedimentary deposit composed largely of silt-size grains that are loosely cemented by calcium carbonate.
Continued with next post.
The Third Day continued.
Now we turn to the ring and canopy theory which has been able to assign clear and logical causes to some of earth’s “mysteries” to see if it can shed any light on this perplexing problem. Again, let us start with the carbon atom and see what pure philosophy would require. We found that very probably carbon was formed from nitrogen during the process of fission and fusion which must have attended the early period of the formation of earth’s materials. We find that carbon is one of the common elements in earth’s crust (the 15th most abundant element), and is included in some form in the deposits of every age, although in bulk it comprises a very small percent of the deposited material, being grouped in with all others that make up 1%. However, in keeping with the law of arrangement of materials according to weight, we would expect the heavier, denser carbons to be deposited first and the lightest carbon last. We would expect the greater deposits in every age to be toward the Polar Regions, and that such deposits would indicate that they were water-laid.
As the collapse of the canopies brought down earth materials on both sea and land, that which was dropped on water would be separated according to specific gravity, and the heavier carbon crystals would sink before the lighter ones, and the lighter ones would move with the currents and the tides further than the heavier ones, but finally come to rest, water-laid. The heavier carbon crystals sinking faster than particles of clay or other material would have less extraneous matter deposited with them than the lighter carbons. Being laid in water, they might well take down with them small organisms or floating vegetation.
Thus, on the Eastern Seaboard of the U.S. we should find the denser coal with less ash content (anthracite) farther east, and the lighter coal, with more ash content (bituminous) further inland, and these beds should diminish in both thickness and quality from their eastern to their western limits. This area was the continental shelf, and under the waters of the Atlantic Ocean during the carboniferous period, and carbon falling into the sea would have been carried by tidal action toward the shores. Note the coal measures still under the sea around the south of the British Isles. East of the Appalachian Range the coal should have been laid down with marine (salt water) fossils, but nearer to the land we would expect refuse from the land vegetation washed down to the sea, and saturated with water, it should have sank to the bottom where the carbon was. Somewhere we would expect in view of the glacial period following the rupturing of a canopy, to find *loess mixed with the carbon, like mud.
This condition should be found in the great central basin with its fairly quiet waters (The North American Inland Sea shown below) rather than in the restless churning waters of the ocean. Along the east side of the Rocky Mountains we would expect to find some anthracite coal and west of that bituminous coal. But whatever anthracite is found, it would not be beyond our expectations to find it where bituminous coal predominates. Since even on the interior of the continents, coal was water-laid during periods of glacial movement, we would expect this period to be of violence and mountain making. These processes involve not only North America, but the whole earth at the same time. Note: The great central basin is in actually comprised of five individual basins.
*Loess is a sedimentary deposit composed largely of silt-size grains that are loosely cemented by calcium carbonate.
Continued with next post.