"alice, I saw right through your quack "scientist".
no proof, just his "bible" trained answers"
He wasn't my “quack scientist.” I didn't know who the man was until yesterday. I haven't taken a thorough look into how the global deluge in the Genesis account relates to all physical scientific laws. This is another investigation into how fish could have survived the Genesis flood.
http://www.icr.org/index.php?module=articles&action=view&ID=351
by Kenneth B. Cumming, Ph.D.
SURVIVAL STRATEGY
Runoff to the Ocean
Heavy rainfall over the land would quickly fill the river basins with torrential flows. These in turn would empty out onto the encroaching coastline as a freshwater blanket. Odum[5] refers to situations similar to this as a "highly stratified or `salt-wedge' estuary." Such a massive freshwater outflow from the continents would join with the oceanic rainfall to form a halocline or strong density gradient, in which fish flushed out from the land aquatic systems could continue to survive in a freshwater environment. Stratification like this might even survive strong winds, if the freshwater depth was great enough to prevent internal current mixing. Thus, a situation might be envisioned where freshwater and marine fishes could survive the deluge in spite of being temporarily displaced.
Turbidity Flows
On the other hand, large turbid particles and enormous bedloads could move into the ocean as settleable particulate rain and ground-hugging slurries. Heavier particles would fall out in the slower-moving coastal waters, and the mudflows would sediment out over the ocean floor. Although there would be turbulence at the freshwater/saltwater interface, the particle insertion would probably occur without appreciable mixing. With the range of tolerance given above, many fishes might be able to survive extended exposure to high turbidity.
Serendipity at Mount St. Helens
The biotic recovery at Mount St. Helens after the May 18, 1980 eruption demonstrates rapid and widely ranging restoration. Obviously, the Flood would have been one or more orders of magnitude greater a catastrophe than that eruption. But such an event does help us to see ways of recovery.
| SPIRIT LAKE | ||
| April 4, 1980 | June 30, 1980 | |
| Alkalinity (mg/l) | 0.01 | 150.5 |
| Temperature (°C) | 4.0 | 22.4 |
| Turbidity (mg/l) | 0.75 | 24.61 |
With regard to the three factors of interest (salinity—approximately alkalinity, in the sense of dissolved solutes—, temperature, and turbidity), significant changes were seen in the affected areas (data transformed to units used previously).[9,10]
Still, a little more than a month after the eruption, the lake most exposed to the catastrophic event, Spirit Lake, had tolerable alkalinity, ambient temperature, and low turbidity. This is not to deny that all the endemic fish were killed in the event and probably could not have survived if replanted in these waters on June 30, 1980, due to large organic oxygen demands from decaying tree debris and seeps of methane and sulfur dioxide. But within ten years, the lake appears to be able to support fish, as many other aquatic species are back and well established. If the lake were connected directly to the Toutle River, then salmonids probably would have made their reentry by this time.
Perhaps the most significant observation, though, in examining the post-eruption history, is that a variety of habitats within and adjacent to the blast zone survived the event with minimal impact on the continuity of the ecosystem. Meta Lake, within the blast zone for example, had an ice cover at the time of the searing blast, which protected the dormant ecosystem from experiencing much disruption from the heat, anoxia, and air-fall tephra. Fish and support systems picked up where they left off before the onset of the winter season.
Similar experiences were observed in Swift Reservoir, in spite of massive mud and debris flows into the lake by way of Muddy Creek (personal conversation with aquatic biologist on duty at that time). Fish were displaced into the adjacent unaffected watersheds or downstream into lower reservoirs. However, within two years, massive plankton blooms had occurred and ecosystem recovery was well underway with migrant recruits.
Such a confined catastrophe (500 square miles) enables one to project expectations from a major catastrophe, such as the Flood. First, in spite of the enormous magnitude of such events, there appear to be refuges for survival even in close proximity to the most damaging action. Second, recovery can be incredibly fast—from one month to ten years. Third, recruitment from minimally affected zones can occur with normal migratory behavior of organisms. Although some animal and plant populations or even species might be annihilated in such events, remnant individuals can reestablish new populations.
Establishing Biblical events as harmonious with the laws of science isn't really evidence for the existence of God. Most people I've come across believe that real evidence should be obtained from God himself, not just what's on printed page.
