PART ONE
EVIDENCE OF CAREENINGS OF THE GLOBE
I - HISTORICAL WRITINGS
Obviously there are still many people who consider the Noah tale
as mere fiction. However, there are just as many who credit it with
a certain historical truth; this writer is one of that group.
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FROM early Jewish history, as recorded in the Bible, comes down to
us a tale of a great deluge, a tale familiar to most civilized
peoples.*
All mountains were covered by water. Noah and his
family-together with two of every species of bird, beast, and
reptile-were saved in an Ark which landed on Mt. Ararat in Asia
Minor. The highest elevation of this mountain is 17,100 feet above
sea level.
The physical cause of the Great Flood is confirmed by the biblical
story, which consists of two merged narratives; from these we learn
that "the same day were all the fountains of the great deep broken
up .... And the rain was upon the earth forty days and forty
nights."
It is both logical and evident that the breaking up of "all the
fountains of the great deep" was the effect of a specific cause, and
that the cause was a mechanical one, forcing a change in land and
sea levels.
It is obvious that the rain of forty days and forty nights was
incidental to the Flood, and not its cause. Noah and his group of
survivors were "shut in" the Ark, and therefore knew nothing of
outside atmospheric conditions. They may have thought that the rain
caused the Flood, for the story of the rain has been passed down by
their posterity.
Simple arithmetic shows the impracticality of the theory holding
that the earth was flooded to the tops of all the mountains by rain
water; this leaves "the fountains of the great deep" as the natural
cause of the Flood, this being in accord with the historical record.
Mount Everest is 29,000 feet above sea level, and its top was
submerged. In forty days and forty nights there are 960 hours, or
57,600 minutes, for the waters to rise 29,000 feet; thus the waters
rose 725 feet per day, 30 feet per hour, or approximately 6 inches
per minute!
Obviously no continuous rainfall could create so great a flood.
Since rain waters would run off into the oceans such a flood would
be impossible by means of rainfall. Further, it would be beyond the
capacity of the rain cycle of evaporation, condensation, and
precipitation to produce it.
Therefore, the fountainous breaking up of the waters of the great
deep, (See pages 51, 144) caused by the movements of earth materials,
remains as the logical interpretation of the biblical story of the great Flood. Furthermore, this clearly fits
into the pattern of the careening globe theory, and aids in
identifying that last careen of the earth as the cause of the Flood.
In the mythology of the Greeks, the iniquity of the human race
provoked Zeus to overwhelm the earth with a flood; this occurred, it
was said, in the fifteenth century before their era.
From this
flood, only one man, Deucalion, and his wife, Pyrra, survived in an
ark or chest which came to rest on Mt. Parnassus, Greece. The
elevation above present sea level of this mountain is 8,000 feet.
The Hellenes (Greeks) were descended from Deucalion’s son, Hellen.
The ancient Hindus, Chaldeans, and the
Jews all have records
indicating that a great deluge occurred slightly more than 5,000
years ago.
Cuvier refers, without identification, to an ancient Brahman
collection of Indo-European prose which had a recurrent flood
theory.
William Thomasson says in his book The Glacial Period and The Deluge
that,
"the
Chinese have a wonderful tradition, that properly interpretated,
tells of their sudden, flying leap to the Arctic... It is the
story of the Ten Stems, or Ages."
Confucius, born about 551 B.C., begins his history of China with a
reference to a receding flood which had been "raised to the
heavens."
Plato relates through Critias the story, told to
Solon by Egyptian
priests in 600 B.C., that a great war of invasion had occurred about
9,000 years earlier, led by the kings of Atlantis, an island empire
of very great extent, which was afterwards sunk by an earthquake and
left an impassable barrier of mud to sailors voyaging past what is
now Gibraltar.
Atlantis - The Antediluvian World
by Ignatius Donnelly
Text complete
Contains
historical proofs
of a great deluge, including details of many written records and
legends of Assyrian, Babylonian, Chaldean, Hindu, and North and
South American origin.
Mr. Donnelly refers only to the disappearance of
Atlantis, and with
it, its civilization. His researches disclose evidence of a
civilization prior to the Flood, and of the dispersion of peoples
and their arts following the catastrophe. Actually, most of the then
existing peoples and their civilization were engulfed immediately by
this latest World Flood.
Theories about the earth’s so-called crust of one hundred to one
hundred fifty years ago reveal that the science writers of that
period appear to have been divided into two main groups. Those who
belonged to the older school of thought were referred to as "Cataclysmists,"
or "Catastrophists."
They held to the inherited, then accepted,
theory that the main changes observable in the earth’s surface were
the results of an adjusting power different from what is now
commonly understood as The Laws of Nature. In the view of the newer
school of thought, represented by those referred to as "Uniformitarians,"
the workings of natural, unchanging, explainable forces could
account for all of the changes in the surface of the globe. Since
then, the scientific world has become, in its beliefs, wholly
uniformitarian; the cataclysmic theory of geological changes through
the caprice of nature has been gradually abandoned.
The missing
link, which kept cataclysmists and uniformitarians separated, is
simply an acceptance as a basic scientific truth that catastrophism
is a part of the natural working of Nature’s Laws.
A hundred odd years ago cataclysms were recognized as having
occurred-as they are so recognized today-but the explanations
offered were not generally accepted because they were based on the
so-called caprice of nature: erratic, freakish, whimsical control by
Nature-or the temperamental setting aside of Nature’s Laws. Today,
scientists look to the Laws of Nature for explanations of all
physical phenomena.
The difference between cataclysmists, who claimed to know the
answers, even though wrong, and the fundamentalists, who were still
seeking for a scientific explanation to which they might agree, is
illustrated by the following story.
A cataclysmist was asked how he would explain the phenomenon if he
saw a bar of steel floating in the air. "Why," he said, "if I
happened to witness such a thing I would know that it proved the
temporary suspension of one of Nature’s Laws."
A fundamentalist, when asked the same question, replied, "If I saw
steel floating in the air I would know it proved the existence of a
Law of Nature about which I happened to be ignorant."
What the cataclysmists explained erroneously, at the time, and the
uniformitarians left unexplained, is now rationally explained by the
basic theory of an automatically careening globe-a theory which is
strictly uniformitarian, being wholly in accord with the immutable
Laws of Nature.
Archeology
AT THE site of the ancient city of Ur of the Chaldeans, located in
present-day Iraq about eight miles west of the Euphrates River and
near its junction with the Tigris, archeologists have disclosed
layers of materials which indicate that one city after another
occupied the area during a long period of time.
Excavating layer
after layer to a depth of about fifty feet, they have disclosed
about one hundred and thirty-five successive periods of city life,
each period also being demarcated by a different dynasty.
At slightly below the depth of fifty feet the archeologists came
upon a layer of clay, eight to ten feet thick. Below the clay bed
they discovered ten (one account says twelve) layers representing
successive dynasties, but the relics and artifacts were found to be
of a different kind than those found above the clay. A significant
discovery was the fact that painted pottery was found below the clay
bed but not above it, with the exception of scattered samples of
painted pottery found immediately above the clay, but not higher up.
The archeologists are in agreement that a flood must have produced
the bed of clay. Clay is formed by silt settling in water. The silt
is derived primarily from the grinding of rocks upon rocks under the
pressures and movements of glacial ice. A ten-foot clay bed took a
long time to develop; the length of time required for its creation
may be ascertained by counting its varves or layers-as explained in
the section entitled "Geology."
Copper is an ingredient of the articles found in the strata above
the clay bed, but copper is absent from the artifacts
below-suggesting a discontinuity of the two civilizations separated
by the period of time during which the clay bed was being created.
By comparing the relics and artifacts found in the different layers
of dirt with those of other civilizations, we can estimate the
elapsed time represented by the total fill of dirt above the clay
bed to be about 6,000 years.
A high degree of civilization, at the culmination of Epoch No. 2 B.P.,
(Before Present) would account for the painted pottery. A movement
of the land area, caused by the careening of the earth, from a
temperate to a cold latitude, its submergence beneath the seas and
the entire disappearance of its people and their civilization, is
indicated for Epoch No. 1 B.P., during which the clay bed was
formed.
At the commencement of the present epoch, at the moment of the last
great flood, the land area careened to its present latitude, where
it again became inhabited by human beings; but these new peoples did
not possess the art of painting pottery, which characterized the
artifacts of the race that had been destroyed by the flood.
Ur of the Chaldeans was probably located on the Persian Gulf, though
it is now about 115 miles inland. The sea level has not remained
constant, as explained elsewhere, and the lower delta of the
Euphrates River has extended into the Gulf. Clues to this are the
record found at Ur of a marine hero, conqueror of storm and sea, and
artifacts indicating trade with distant places-probably partly by
sea.
Excavations by archeologists at Cnossus, Crete, have disclosed 43
feet of soil and then virgin rock. The relics and artifacts
uncovered indicate successive habitations by man, and when compared
with specimens gathered elsewhere, these objects represent a time
period of about 5,300 years.
The soil which developed during these distant years came from
vegetation and animal remains, from wind-borne dust, and from
erosions at higher levels. The relics and artifacts were not found
in the very deepest excavations near the rock surface; this fact
indicates that a period of time elapsed before people came to live
there and also that the gradual build-up of the earth materials had
extended over a period of more than 5,300 years.
The rock substrata below the soil at Cnossus fits into the pattern
of the theory of a careening globe. A revolutionary change in the
development of the earth strata occurred at this place.
During Epoch No. 1 B.P. the land area now known as the island of
Crete was located near a latitude corresponding to the present
Arctic Circle. Today, located near the eastern end of the
Mediterranean Sea, it is in a temperate climate, is covered with
soil and vegetation, and people have been living there for more than
5,300 years.
The Mammoths
ANIMAL fossils, especially mammoths, offer positive proof that the
earth has rolled around sideways to its normal direction of
rotation.
Mammoths are now being found in arctic regions, buried in lifelike
condition in the permanently frozen ground. Their presence,
condition, and location document a gigantic catastrophe in which the
climate of a very large area of land suddenly and drastically
changed. Only a sudden rotating or careening of the globe could have
caused this change.
Siberian mammoths are commonly described by the terms "Wooly" or
"Northern." Their bodies and limbs are covered by long coarse hair
resembling tubular reddish-brown plastic needles. In addition, they
have been found with an undercoat of short finer hair. But the skin
of their head, trunk, and ears is smooth. It is evident that they,
like our present-day elephants, were unsuited to a cold climate.
Indeed, they would have frozen solid in the present winter climate
of Siberia.
The food contents of their stomach and their teeth, however,
provides us with evidence of their origin.
The literature on the mammoths is full of references to their eating
evergreens, now the main vegetation of the regions where the
carcasses are found. This reference has apparently resulted from the
writers’ assuming that the mammoths actually lived and thrived in
the present cold climate of Siberia. Analysis of the stomach
contents of these carcasses does not substantiate this theory.
The
evidence suggests that the feeding grounds containing these animals
was moved quickly from a warm to a frigid climate. The carcasses of
rhinoceroses, also found in the ground, aid in further
substantiating that some of the feeding grounds were tropical, and
that the present polar climate of their resting places is far
different from the climate of the Eden-like land in which they were
born and reared.
The food contents of the stomachs of the mammoths also give us a
clue as to the exact time of day the earth careened. A full stomach
indicates the sudden death of a healthy animal, and that death
occurred after, and not before, the feeding period of the day. The
food found in the mouths and stomachs of prehistoric monsters
indicates that they had been grazing among abundant warm climate
grasses when death suddenly overtook them.
The suggestion of a sudden careening of the globe is further
substantiated by the condition of the carcasses. Several mammoths
have been found in an upright position on their haunches. Some have
been found with broken bones. The upright position supports the
theory that they met death suddenly; the broken bones indicate
violent contusions just prior to death. The super-hurricanes, or
head winds caused by the rapid careening of the globe, would account
for large animals being tossed about and buried in debris. The
raging waters of a flood would produce a similar effect. The
lifelike condition of mammoths found underground would indicate that
they were frozen solid soon after having been buried alive.
In 1901, a mammoth was extricated from the bank of the Bereskovka
River in Siberia, 66 N. latitude, almost on the Arctic Circle. It
was solidly frozen in the tundra, but its head became exposed during
a landslide. It was a male animal, found sitting on his haunches,
with pelvis bone and right foreleg broken. In this condition he
could not move, much less forage for food.
Yet it had perished just
after eating breakfast. There was a small quantity of grass on his
tongue which he had been in the act of eating. His teeth were filled
with half-chewed grasses; twenty-seven pounds of grass were removed
from his stomach on one occasion, and more on another. This animal
is now mounted in the Zoological Institute of The Academy of
Sciences in Leningrad.
The stomach contents of the Bereskovka mammoth consisted chiefly of
field grasses, which were identified, analyzed, and photographed.
The names of the grasses are given in Russian and Latin in an
article by G. N. Kutomanov in the Bulletin of The Academy of
Sciences of St. Petersburg, 1914, Vol. 8, No. 6, pages 377-88. The
grasses are similarly reported in a detailed description of the
extrication of the beast in the annual report of The Academy of
Sciences, 1914, Tome 13. That report observes that "Contrary to
popular belief, no evergreens have ever been found in the stomach of
a mammoth."
Nine genera of grasses were found and help us to establish the
climatic conditions under which the animal lived. If the grasses
were arctic grasses, the mammoth must have lived in an arctic
climate. If the grasses were tropical, a tropical climate would be
indicated. This problem was submitted to the Smithsonian Institute.
Mr. C. V. Morton, Curator, Division of Ferns, Department of Botany,
advises that all of the grasses are now found in temperate climates,
none in tropical climates, and four out of the nine are found as far
north as the Arctic Circle.
Whether the grasses could have grown in a tropical climate, and
survived after having been moved to temperate and frigid climates,
is not ascertainable. The presence of rhinoceroses, however,
indicates that the climate had been tropical.
A report concerning a rhinoceros found on the bank of the Vilui
River in Siberia states:
"The animal appears to have been drowned,
for the blood vessels of the head were found by Professor Brandt to
be filled with red coagulated blood, such as would be produced by
suffocating through drowning. Probably it was suddenly caught in a
flood of rushing water, from which it had no opportunity to escape.
At one moment the animal was standing on firm ground, peacefully
browsing, and in the next was overwhelmed by a roaring flood, the
tumultuous waves of which bore along masses of mud and gravel in
their sweeping course, so that it was drowned and buried almost
instantly. Then the intense cold set in, the body froze, and the
ground never thawed out until the day when it fell down on the banks
of the river."
Both the Vilui River rhinoceros and the Bereskovka River mammoth
evidently died of suffocation. The stomach contents of the mammoth,
as indicated by the many photographs, did not contain water. The
grasses were dry.
Therefore, it is reasoned, the beast was not
drowned but perished in the super hurricane and dust and dirt storm
caused by the rapid movement of the earth’s surface against the air
in that particular area. The same winds, by their force and
pressure, would have filled the air with the trees, animals, top
soil, sand, gravel and debris, in which the animals were buried
alive.
I. P. Tolmachoff states concerning the Bereskovka mammoth:
"The
pelvis, a right foreleg and a few ribs were found broken, as well as
indications of a strong hemorrhage and also suffocation in mud. The death by suffocation is proved by the erection of the male genital,
a condition inexplicable in any other way."
(American Philosophical
Society Transactions, N.S. 23, 1929).
Physicians have corroborated
Mr. Tolmachoff’s conclusion of
suffocation; this conclusion, in turn, helps to establish the fact
that these animals died through sudden mass extinction, and not by
slow or individually separate deaths.
Tolmachoff also states that no
mammoth nor rhinoceros has been found frozen in the ice.
The fossil remains of other beasts and fishes have been found with
undigested stomach contents. A beast with a partly chewed rodent,
for example, was found in Colombia, South America, in 1945, and is
now at the University of California, in Berkeley.
This beast,
classed as genus Borhyrna has been estimated to be millions of years
old. It had been buried in fine sand before it had had a chance to
digest its recently swallowed breakfast. When the sandstone was
carved away from the skeleton, the rodent was found resting where
the beast’s intestines belonged.
The arctic regions, where mammoths, rhinoceroses, and other animals
have been found, do not have sufficient vegetation to support a
single mammoth, and the cold is so intense in winter that no mammoth
could survive.
Yet, just prior to the latest careening of the globe
this region was populated with teeming herds of animals.
They lived there because an ample food supply existed, and the food
supply grew because the climate was warm. Millions of mammoths once
lived in what is now a refrigerator for their carcasses and bones.
The abundant vegetation, indicated by the food supply, corroborates
the other evidence that the latitude where these animals lived was
either tropical or temperate.
Great quantities of bones of mammoths, horses, cattle, buffaloes,
camels, sheep, deer, and many other grass-eating animals as well as
those that preyed on the plant eaters have been found in the frozen
tundra of Siberia. Their remains add to the positive evidence of the
profuse vegetation necessary to support these hordes of animals. The
finding of at least thirty-nine mammoths in the Siberian tundra is
recorded.
Animals smaller and less spectacular than the mammoths and
rhinoceroses have not been reported, when and if they have been
found by hunters and trappers. Nevertheless, a great number of
smaller animals must have become exposed on the surface through
tundra landslides caused by summer rains that, unable to penetrate
the frozen tundras, flood extensive land areas.
In regard to the remains of mammoths, mastodons, dinosaurs, and
other prehistoric animals now being found at widely scattered areas
of the earth, at many different latitudes, and in successive earth
formations, three facts stand out: First, the fact of their total
destruction. Second, the fact that the last members of the species
died suddenly while in a condition of good health. Third, the fact
that their remains show their habitations extended over widely
scattered and now separated land areas.*
The theory of the recurrent careenings of the globe fits the evidence better than any other. The
careening theory explains the cataclysms destroying animal and plant
life, and accounts
The moot question of a land bridge at Bering Strait, between North
America and Asia, is apparently solved by the great quantities of
mammoth tusks and bones found in the now separated and frigid areas
of Wrangell Island, New Siberian Islands, Alaska and Siberia;
indicating that these animals roamed freely over a connected land
area, in a warm climate, just previous to the latest careen of the
globe, for changes in the climate of most areas of the earth as well
as the duration of each epoch between the world deluges.
Sea Life
THE seas have also been searched for organic life which would help
substantiate the theory of a careening globe, and clues have been
found in seals and lobsters.
The seals found in the Caspian Sea and in Lake Baikal in Siberia are
the same as the seals which inhabit Alaskan waters. The evidence
indicates that the two branches of the family at one time were
together, like the mammoths, and became separated during the last
great deluge. Most of the lakes as well as land areas of the globe
were then temporarily covered with the waters of the oceans enabling
the seals during the Flood to scatter in all directions.
There is a logical, self evident explanation to the riddle why the
same variety of seal happens to be found in three such widely
separated locations. They are the descendants of those seal
ancestors that were still living, and could find a food supply, when
the Flood came to an end. Some among the ancestor group of seals had
been stranded on land, some found themselves in lakes, while others
were still in the ocean.
A lobster of peculiar genus is found only in icy arctic waters and
in the PLA Deep of the Mediterranean Sea. Finding this lobster in
the Mediterranean Sea helps to prove that the sea was near the North
Pole before the last careening of the earth. At that time its waters
were icy and suited to this species of cold-water lobster. When the
earth last careened this sea was moved to a temperate climate. The
cold-water lobster still continues to live in it, but only in its
coldest waters and in its deepest depression.
Fossils
ABOUT a century and a half ago Georges Cuvier wrote:
"It is to
fossils that we owe the discovery of the true theory of the earth;
without them, we should not have dreamed, perhaps, that the globe
was formed at successive epochs, and by a series of different
operations.
They alone, in short, tell us with certainty that the
globe has not always had the same envelope; we cannot resist the
conviction that they must have lived on the surface of the earth
before being buried in its depths; if we had only unfossiliferous
rocks to examine, no one could maintain that the earth was not
formed all at once."
There is, today, among scientists complete agreement with Cuvier.
Drillings to a depth of four miles have disclosed the earth’s
envelopes, now called strata, and each provides us with a record of
the epoch during which it was created.
Footprints and tracks of animals, reptiles, and crustacea, that were
made many thousands of years ago in various muds and wet sands, have
been discovered and are now preserved in museums in the form of rock
specimens. Raindrop splashes in the then soft, oozy mud have been
discovered in numerous specimens of stone.
Where the evidence of a tropical climate surrounds frozen mud
sculptures the sudden freezing can only be accounted for by an
assumed careening of the earth which brought the mud into a
different climate. The prompt solidification of the mud by freezing,
when moved quickly from a tropical or temperate climate into a
frigid climate, clearly accounts for these remarkable phenomena.
The mud sculptures having become like stone by freezing were further
"set," during one of the glacial periods, by the accumulation of a
layer of sediment. This, in turn, acted as a mold and preserved the
shapes of the sculptures after the specimens had been careened back
to tropical or temperate climates and the frozen mud or tundra
thawed out during the succeeding epoch. In these molds the former
mud slowly changed to stone.
There are great differences in the fossil markings on rocks. The
sharp, delicate, shell like craters of raindrop splashes could not
have been preserved except by quick freeze; the mud of unfrozen
splashes soon oozes back and become pockmarks. Jellyfish entombed in
mud and frogs could not have been preserved except by quick freeze;
else they soon would have rotted.
On the shores of the Bay of Fundy large areas of dried red and sandy
mud, deposited by spring tides, are laid bare and, baking in the hot
summer sun for ten days during neap tides, the upper part of the mud
becomes consolidated for a depth of several inches. Sir Charles Lyell reports finding, on these mud surfaces, small cavities or pit
marks caused by raindrops, footmarks where birds had walked, and
other tracks. On splitting a sample slab of the hardened mud and
reducing it in thickness, he found footprints made during several
prior neap tides on the inferior layers: each made by birds at
different times.
This is an illustration of one of Nature’s methods of preserving
track marks. Even today fossil prints of various kinds are produced
in this way and may be found in many different localities. This
drying out method of producing stone from mud, and preserving track
marks, could never account for the delicate shell like craters of
raindrop splashes which are preserved by quick freeze.
The most sharply delineated markings of tracks of living things and
imprints of vegetation preserved in stone are found in the top
layers of the strata that correspond to the end of each epoch. For
example: the profusion of leaf and fern details on the top surfaces
of vegetable muck deposits which have become coal (as described in
detail later), indicates solidification by freezing during the last
moments of the thousands of years of muck accumulation; after that
moment no more muck accumulated at that location.
Where these muck deposits were located, a revolutionary change
occurred in the way the earth’s materials are formed. From this we
know that the conditions necessary for the forming of those earth
layers suddenly changed. We know that a condition for the formation
of vegetable muck was a tropical or temperate climate, and we know
that its slow, time consuming creation suddenly ceased. We know that
it would disintegrate or be consumed by slow combustion unless it
was suddenly covered up.
We therefore look for evidences of a polar climate in the overlying
strata, and we often find clays, shales, and slates, which confirm
the theory of a careening globe.
A confirmation of the theory of a careening globe evidenced by the
time elapsed between successive layers of the earth’s upper strata
comes from the tracks of large dinosaurs which were examined by a
trained observer, in 1940, on the Davenport Ranch in Bandera County,
Texas. He reported sun cracks in the silt filling the footprints;
this indicated that the surface had been below, although it is now
above, water.
The important element in that observation is the fact that the sun
cracks were in the silt filling the imprints, but not in the rock
materials containing the track marks. From this it may be readily
deducted that the tracks had become set as hardpan and then rock
before the silt filler that cracked in the sun had been deposited;
and that, therefore, the silt filler represented a later epoch of
time than did the rock material which did not crack in the sun, and
could not have been contemporaneous.
The dinosaurs whose skeletons were found grouped together in the
rock formations at Dinosaur Monument, Utah, were drowned by
the
Great Deluge which ended the epoch in which they lived; they sank to
the bottom of a lake or river and became covered with sediment which
turned to rock during succeeding epochs of time.
Those rocks are now small mountains. The upheaval raising lake or
river bottoms to much higher elevations occurred during one of the
later careenings of the earth with simultaneous rearrangements of
land masses and a Great Deluge. From Dinosaur Monument a million
pounds of petrified bones have been quarried for display in various
museums.
Mass graveyards with remains of mammoths have also been discovered.
Geoffrey Bibby, in his book The Testimony of the Spade, describes
one graveyard containing over 900 mammoths, both young and old,
several hundred other grazing animals, and wolves and foxes; it is
located at Predmosti in central Moravia, in a valley quarry six to
ten feet below the surface of the covering dirt and top soil, in a
stratum which has not yet turned to rock.
He states some conflicting
opinions as to the probable reason for its existence. He cites
similar mass burial grounds of mammoths as having been found in
Lower Austria, at Krems, Langmannerdorf, and
Willendorf, and
elsewhere.
Evzen and Jiri Neustupny, in their book Czechoslovakia
Before the Slavs (page 26) state that "the bones of more than a
thousand mammoths have been found at Predmosti and the quantities
discovered at Dolni Vestonice and Pavlov are no less impressive."
The mammoths’ graveyards can be considered as additional evidence of
the recurrent cataclysms of the earth. Their shallow burials make it
appear probable that they lived in Epoch No. 2 B.P., when the Hudson
Bay Basin was at the North Pole of Spin; it also seems probable that
their carcasses have not received quite as much protection against
disintegration as have the New York State mastodons of Epoch No. 3 B.P.
An exhibit at the American Museum of Natural History showing a
similar group of skeletons of prehistoric animals, all piled
together like offal at a slaughterhouse, can be explained most
rationally by the deluge caused by a careen of the globe. Those
animals evidently came to their death by cataclysmic mass drownings.
Their bodies probably settled in an eddy, or at an obstruction, or
in a deep hole at the bottom of the transient flood waters, where
they were covered by dirt and debris. Quick freezing may also have
retarded their disintegration.
The careening of the globe, with concurrent great deluges, is
confirmed by such discoveries of massed skeletons of contemporaneous
animals piled together. Similar burial grounds containing
contemporaneous fish skeletons will be discussed later.
Petrified oysters, clams, crabs, and starfish were found at depths
of several hundred feet during the digging of the Panama Canal. They
were all perfectly preserved but had turned to stone. Some of the
species do not thrive in the tropics, indicating that what is now
Panama was at one time located in a temperate zone.
Specimens of fossil jellyfish have been discovered in Cambrian rock
formations, classified as among the oldest rocks. Their external
structures, as well as something of the interior forms of the
jellyfish, were found to be quite well preserved. (Geology, by H. F.
Cleland, page 416. )
Solidification by freezing of both the sand and the jellyfish, at
the moment of the careen of the globe, is the simplest scientific
answer to this age old riddle of how a soft jellyfish could become
solid rock. What is now rock was once soft and wet sand which was
suddenly hurled about so that the jellyfish was virtually buried in
it; thereupon both suddenly congealed into a solid mass by quick
freezing.
The preponderance of marine fossils found so far, as compared to
upland fossils, is partly due to the cleavages of the unconformable
debris which covers former sea surfaces. Such cleavages bring about
the exposure of the trapped and preserved specimens, among which the
best preserved are those that have been quickly frozen.
The fossils
of the uplands embedded in what was soil at that time, are less
easily discoverable. Many animals, including dinosaurs, are found in
rock. Mammoths are being found in tundra or dirt that will change to
rock, and mastodons have been retrieved from moist earth, well below
the surface, which will eventually become rock.
As we have seen, the bones of fossil animals must be assumed to be
those of animals quickly buried after death, for bones left on the
surface decay rather rapidly due to oxidation and the action of
organic acids wherever vegetation flourishes. The former enormous
herds of buffalo on the American plains did not become fossils. The
present swarming animal life of the African plains does not become
fossilized at death. At death animals become part of the substances
building up the soil.
But when mass burials of animals have occurred
due to the careenings of the globe the remains have been embedded in
earth through which mineral laden waters have percolated and have
established conditions for creating fossils.
Trees and Vegetation
FOSSIL trees and other vegetation provide additional evidence
regarding past epochs of our planet.
Upright trees and tree trunks
are found in the sea; fresh tree trunks lie underground; fresh fruit
and leaves, frozen like the mammals, are found in Siberia;
fossilized and petrified trees exist net only on the surface of the
earth, but also in tiered layers of its sub strata. And all of these
phenomena can be traced quite rationally to the past careenings of
the globe.
In the Bay of Fundy, at Fort Lawrence, Nova Scotia, the stumps of a
submerged forest of pine and beech trees stand upright in the soil
in which it once grew. They become visible during low tide. In other
parts of the Bay of Fundy also, short, decaying stumps and roots
emerge briefly and are exposed to view during low tide.
These trunks and stumps are the remnants of trees once growing in
upland areas that were completely submerged when the earth last
careened. As the sea level later was lowered (due to the waters
accumulating as ice in Antarctica and elsewhere) the trees were all
gradually exposed to the air. Oxidation occurred, and the exposed
parts rotted away.
The tree trunks of any submerged forest all end abruptly at low tide
water level, for any part of a tree projecting above the water or
mud would, if given enough time, become oxidized by the air, would
rot, and be washed away. What will finally be left are the stumps
and short trunks standing below the lowest water level.
Three branches in a vertical position were reported by Nordenskiold
(in The Voyage of Vega) to be at the bottom of the sea adjacent to
the arctic islands of New Siberia. Nordenskiold also refers to tree
branches which burn with a glow, without a flame, and which continue
to be cast up every year in a northern Siberian lake, indicating
submerged forests, beneath the surface of the lake.
At many places tree trunks have been found underground. These trees
obviously did not grow underground, and under normal conditions no
fallen tree becomes buried. They must have grown above ground in
some former epoch and then been buried by a cataclysm, for dead
trees lying on the ground merely rot and decay.
They are gradually
oxidized, just like the decaying tree limbs projecting above water.
Under such conditions they would have disappeared entirely before a
hundred years had elapsed. But when trees are buried in water or
damp earth they are protected from oxidation, and are able to stay
fresh for thousands of years.
The presence of these underground
trees is further evidence of a cataclysm that buried them under dirt
and debris borne by hurricanes and flood waters.
Fresh trees can now be mined in many places, including the Dismal
Swamps of Virginia, the Hackensack,
New Jersey, meadows, and in the
marsh area of the isthmus connecting Nova Scotia and
New Brunswick.
In certain areas of northern Siberia innumerable tree trunks called
by the natives "Adam’s wood" and said to be in all stages of decay
are embedded in the solidly frozen tundra. Because they were once
growing trees, of types which do not grow in that climate, they
confirm that a change in climate has taken place, such as would be
caused by a careen of the globe.
They could have been broken by a
hurricane or flood. If so, they will show a clean break on the side
on which the breaking force was imposed and torn fibers on the lee
side. A reexamination of the wood, to determine genera and species
of the trees, will enable us to establish the latitude range or
climate in which these trees grew.
A so called mammoth tree, with fruit and leaves still on it, was
discovered and reported after a landslide of Siberian tundra. Such
cold storage of fruit 7,000 years old can only be explained by a
sudden transportation of the fruit from a warm climate in which it
grew to the cold storage climate in which it has been refrigerated.
This specimen of fruit, with leaves, and many other specimens of
leaves reported found in Siberia also confirm the careen of the
globe.
The American Museum of Natural History in New York possesses an
exhibit of fruit and plant fossils postulated as millions of years
old; the exhibit includes figs and palm fruits; fresh, full sized
banana leaves; fig, palm, sycamore, pine, and gingko leaves; sequoia
pine cones, and water chestnuts. The fruits are full size and
luscious looking, as though freshly fallen from the trees; the
leaves are also full and fresh looking, not shrunken or folded as
from exposure to the sun, but appear as just fallen, or laid down in
water.
It is necessary to apply the theory of "quick freeze" to these
specimens, as otherwise they would have become rotted, crushed, or
otherwise destroyed, like most other vegetation. The fruits and
leaves "set" by "quick freezing," and then being hermetically sealed
within soil which became rock, the prerequisites were established
for the slow process of petrification to take place.
Nothing else accounts for the fossilization of this vegetation but
the careening of the earth. Figs, for example, are a tropical or
semitropical product. To be preserved they had to be frozen, and to
become frozen they must have been moved to a frigid climate.
Fossil trees are found all over the world. Outstanding examples of
petrified forests are near Cairo, Egypt, at sea level, and those
high up in the Rocky Mountains in Yellowstone Park, near the
continental divide.
At the latter location there are twenty seven horizontal tiers of
former tree life, representing an equal number of Life Ages; all
have become exposed as the side of the mountain has been gouged out.
The fossil trees which have become exposed in some of the earth’s
layers show recurrent periods of tree life; the strata showing tree
life are sometimes separated by strata of earth from which trees are
missing. Where tree fossils occur in one stratum, are absent in the
strata above and below, but occur in the next adjacent strata, they
give us an authoritative confirmation of the careening of the earth.
The slow rising and sinking of land areas relative to sea levels,
which prevail at all times, cannot account for this phenomenon.
Upright fossil trees are found at many different levels at the Bay
of Fundy, Nova Scotia. The tree trunks vary in diameter from
fourteen inches to four feet, and in height from six to twenty feet.
The lower ends are in strata of coal or shale. Tree roots penetrate
two different strata in some locations. The tree trunks, all cut off
abruptly at the tops, extend through different strata of shale,
sandstone and clay, but never through a seam of coal above them.
Tree roots having grown through two adjacent strata of earth confirm
the assumption that they grew in soil and that the soil has changed
into rock.
The coal and shale strata from which the trees sprouted are seen to
belong to an earlier period than the superimposed strata above the
upper ends of the vertical tree trunks. The seam of coal next above
was a still later development. The beds containing the fossil trees
are usually separated from each other by masses of shale and
sandstone many yards in thickness. These strata represent the
developments of many thousands of years and successive epochs of
time.
Nothing of the original trees is preserved except the bark; it forms
tubes of pure bituminous coal and is filled with sand, clay, and
other deposits which appear like solid internal cylinders. In one of
the trees examined by Sir Charles Lyell nine distinct layers, or
deposits, formed the interior cylinder, while there were only three
layers of earth surrounding the tree. The formations in which the
tiered layers of upright fossil tree trunks are found contain also
about nineteen seams of coal. They range from two to three miles in
length along the coast, and are not interrupted by faults.
The best view of these ancient tree trunks may be had at Joggins,
where the cliffs are 150 to 200 feet high, forming the southeastern
shore of an inlet of the Bay of Fundy, called Chignecto Bay. The
fossil trees are all at right angles to the planes of
stratification, which are inclined at an angle of 24 degrees to the
south southwest. The strike lines of these planes, together with the
length of the uplifted formation, as shown in data from the Spur
Ranch drilling (see page 73), indicate that the trees were once
buried about 2 to 2’2’ miles below the surface, and that they are
about five to ten million years old.
The circumstance that all the trees have been cut off abruptly at
the tops suggests that they once stood under water as sub merged
forests, at which time the bark became carbonized as is happening
today to the upright tree stumps in the Bay of Fundy.
The tiered layers of fossil trees are a visual confirmation of the
fact that the earth has careened repeatedly. Each layer was
developed during a different epoch. Each epoch ended with a change
of true latitude for the land area now known as Nova Scotia.
Similar tiered layers of fossil trees are found in the arctic
regions. Frozen "Wood Hill" in the New Siberia Islands, well within
the Arctic Circle is described by Nordenskiold as being 200 feet
high and consisting of thick horizontal sandstone beds alternating
with strata of fissile bituminous tree stems, heaped on each other
to the top of the hill, with vertical tree trunks embedded in the
sandstone of the upper strata.
This scientific disclosure, on analysis, shows that the bituminous
tree stems, which are now in the fossilized form of coal, were the
successive growths of earlier ages. The thick sandstone beds
correspond to sands created during the intermediate epochs of time,
or sands left by one of the successive great deluges of the earth.
The fact that these fossil trees are displayed on the side of a hill
indicates that the hill is a remnant of land left standing after the
surrounding land areas were gouged out by flood or glacier. The
vertical tree stems in the upper strata are the remnants of trees
which were growing at the time of the latest cataclysm of the globe,
and it can be predicted with confidence that, on reexamination, the
protruding tree trunks will prove to be growths of a temperate or
tropical climate.
Superimposed coal fields, separated by considerable thicknesses of
rock, are described in "Fossil Flora of Sydney Coalfields, Nova
Scotia," by W. A. Bell (in Memoir 215, Geological Survey of Canada).
The text and illustrations describe hundreds of specimens of fossil
leaves, ferns, tree bark, and wood. Many of the successive horizons
contain duplicate fossils; but in each horizon differences in
species occur, with the earliest (lowest) ones differing most from
the latest.
It is natural to assume that the fossil leaves and barks of trees
came from trees that also have been fossilized. Layers of upright
fossil trees, like those in the cliffs of Joggins on the opposite
side of Nova Scotia, are never found in the coal seams, and it is
therefore assumed that they would remain undiscovered in the drifts
of the Sydney coal mines, to which Mr. Bell confines his report. His
specimens were mostly taken from the roofs of coal mines which
extend three miles out from shoreline under the sea. Fossil trees
are exposed in superimposition on the adjacent cliffs, as at Joggins.
Similar vertical fossil tree trunks have been found in other
locations. For example, at St. Helen’s, Lancashire,
England, they
occur in silty clay below a layer of about seven feet of brownish
colored topsoil. The stratum containing the trees is reported to be
about twenty one feet thick, inclined twenty three degrees to the
east southeast, and rests on white sandstone. The tree trunks begin
on a level about 8 ? feet above the white sandstone stratum and
extend up about nine feet.
These trees grew during a previous epoch, but they did not grow in
England. The topsoil, above the tree bearing stratum, is all that
was developed in the land area now known as England.
In all the cases discussed it is obvious that the trees grew to
their present size upon the earth’s surface, were suddenly buried in
water, mud, or moist earth, and after fossilization, were returned
to the surface of the earth when the covering strata of materials
were gouged out by glaciers or washed away during great deluges.
Again, the theory of the careening of the globe explains all the
evidence we have here reviewed.
Rivers and Waterfalls
The waterfalls of certain rivers furnish us with time scales with
which we can estimate the duration of their existence.
In the language of geology, a waterfall, or cataract, is a temporary
erosion in the land which is always moving upstream. This stems from
the fact that the brink of the falls is being worn away continually
by crumbling and erosion of the earth materials of the ledges, and
the lowest rock layers, below the falls, are being constantly cut
away by the forces created by the falling waters.
As a result of
this erosion it is possible to estimate the length of the life of a
waterfall and to determine the duration of our present epoch by the
life span of the waterfall.
Superimposed Strata of Stone Containing Fossil Trees and Fossil Flora
(In some cases definitely known to be separated by massive strata of non fossiliferous rock)
|
|
Location |
Number of tree bearing strata |
Type of fossilization |
Reported by
|
1. |
Sydney Mines, Cape Breton, |
59 |
Fossil
Flora |
Geological Survey of Canada, Memoir 215 |
2. |
Yellowstone
National Park
|
27 |
Petrified wood and
bark |
Longwell and Flint in Outlines of Physical Geology, 1962
|
3. |
Wales |
17 |
Superimposed fossil
trees |
W. J. Fielding in Shackles of the Supernatural
|
4. |
Joggins, Nova Scotia |
10 plus |
Petrified bituminous tree |
Sir Charles Lyell, in
Travels in North
America in 1841-2 |
5. |
New Siberian Islands, "Wood Hill" |
Many |
Fissile
bituminous tree stems in strata alternating
with thick sandstone beds; heaped on each other to the top of the
hill
|
Nordenskiold in The
Voyage of the Vega
|
|
The falls of the Niagara River have moved upstream from what is now
Lewiston, on Lake Ontario, and have created a gorge which is now
about seven miles long.
Records kept by the U.S. Geological Survey
since 1842 regarding the speed of retreat of the Niagara River
cataract document that the entire Falls are creeping upstream at an
average annual rate of about 2;2’ feet per year. The Canadian Falls
section creeps at about 4;2’ feet per year.
The precipice of the Falls is now very much longer at its ledges
than the width of the gorge which it has cut. The flow of water over
the ledges is now much shallower, with correspondingly less
pressures than existed, say, 3,000 years ago, when the Falls was in
the gorge.
As a result, the rate of the erosion and undermining of
the cataract, and therefore the speed of its retreat, is less now
than during the early existence of the gorge. The creeping speed
during the creation of the gorge was comparable to the speed of
retreat of the Canadian Falls, where the weight, speed, and pressure
of the flowing water are more concentrated than the average over the
entire Falls.
In 1891 the Commissioners of the State Reservation at Niagara Falls
employed Robert S. Woodward to estimate the time required for the
creation of the gorge of the Niagara River. A man of unquestioned
integrity and superior competence later to become president of the
Carnegie Institution of Washington, D.C. he reported that less than
8,000 years had been required to cut the gorge of the Niagara River.
By assuming a creeping speed of 4% feet per year one quarter foot
per year faster than the upstream movement of the Canadian Falls, to
allow for the additional waters now going over the American Falls we
obtain 7,800 years for the approximate life span of the Niagara
Gorge. This figure, however, is subject to correction.
When at Lewiston the Falls were approximately 280 feet higher than
they are now, and this indicates that the estimated age of the
Niagara River is about 7,000 years.
A diminution of forty feet in the perpendicular height of the Falls
for every mile that they receded southward is pointed out in a
survey made by New York State Geologist James Hall, as recorded by Sir
Charles Lyell.
Hall states that the southward dip of the rock
strata from Lewiston to the Falls is about 25 feet per mile, with
the river channel sloping in the opposite direction at the rate of
15 feet per mile. As a result of this change in the height of the
Falls, the rates of speed of erosion and cutback of the upstream
retreat of the Falls have been variable and not constant. It has
depended on the height of the Falls and on the nature of the rocks
being cut.
Assuming approximately constant average yearly volume, the force
created by this perpendicularly falling water is determined by the
height of the fall. The kinetic energy created by the fall increases
with the square of the speed of falling. The speed of fall in turn
increases with height, through acceleration by gravity, at
approximately 32 feet per second for each consecutive second of its
fall. The wreckage and erosion of the bottom layers of the precipice
take place at a faster rate with a higher fall.
This wear and
erosion become greater than the erosion at the ledges over which the
waters fall. Sections of the cliffs give way and fall to the bottom.
It is apparent that the upstream creepage of the Falls was faster
when the Falls were higher.
The birth of the Niagara River and the record of the short span of
its life history during our present epoch are proof of a recent
careen of the globe and a world cataclysm. During the previous epoch
the Great Lakes watershed existed in a tropical latitude and drained
into the ocean; but it did not drain by way of the Niagara River as
it does now. The Niagara River as we know it today did not then
exist. It was born, in its present form, with the birth of our
epoch.
Embedded sea shells and corals indicate marine formations in the ten
distinct strata of rocks, from Lake Erie to Lake Ontario, through
which the Niagara River flows. Ancient beach lines, ridges, and
terraces are found at successive levels. At different levels the
rocks also have been smoothed, polished, and furrowed by ice. The
grooves in the rocks are tell tale evidence that they were once on
the surface, and that they were located in polar regions, where they
supported the moving glaciers when this land area was undergoing
successive ice ages.
A most careful record of this formation and one of the first was
made by Sir Charles Lyell, and is recorded in his book Travels in
North America in 1841-42. These geological phenomena require, for a
rational explanation, a careening globe with attendant world
cataclysms. Other discoveries of Lyell at Niagara also seem to
require changes in the earth’s Axis of Figure for their explanation.
He discovered that the northwest cliffs of the whirlpool do not
consist of the normal regional rock formation, but are composed of
drift, consisting of sand, gravel, loam and boulders, cemented into
a conglomerate by carbonate of lime. Since this is a surface layer
now, consolidated by lime, it seems to indicate that it had been an
ocean bottom for a long period of time, during a previous epoch.
This conglomerate fills an old river bed, now known as St. Davis
Valley, which extends northwest from the whirlpool for about three
miles, and at its mouth is about two miles wide. The present
northern section of the Niagara River, flowing slightly northeast
from the whirlpool, is apparently a movement cutoff, established in
our present epoch.
The conglomerate filling the St. Davis Valley could not have become
deposited during the cataclysm that ended the epoch just previous to
the commencement of our own epoch the latest world Flood because of
the time required for its cementation.
It could not have become
cemented unless allowed to remain for a long period of time, unassailed by the present rushing waters of the whirlpool. It
appears, therefore, to be a formation resulting from a cataclysm
that ended one of the earlier epochs.
The boulders it contains are evidence that it underwent an ice age,
below an ice cap.
Geologists have also reported important discoveries of two recent
river beds at higher levels than the present Niagara River. One
river terrace is twelve feet and the other 24 feet above the present
level, suggesting that Goat Island, between the American and
Canadian Falls, was once under water, with the same fresh water
shells being found there as in the higher river terraces. Both
higher terraces extend to the whirlpool. They appear to confirm
successive world cataclysms.
The Mississippi River like the Niagara River provides a tell tale
geological time scale showing us how long the earth’s surface has
remained essentially as it is today. The upstream retreat of the
Falls of St. Anthony, on the river at Minneapolis, Minnesota, has
caused the formation of a gorge between seven and eight miles long
and about a quarter of a mile in width. This gorge provides a cutoff
from the broad trough of the old Mississippi River bed used during
previous epochs of time.
Thanks to information regarding the locations of these Falls
provided by early explorers - first Hennepin and later Carver we
know that the Falls receded, up to 1856, at an estimated rate of
about five feet per year, and that therefore approximately 8,000
years must have elapsed from the time when the Falls started, at
Fort Snelling, to the time they arrived at their present geological
location, at the north end of the gorge cut by the Falls.
A correction factor of 10% to 15% must here also be applied in
correctly interpreting this time scale; we thus arrive at
approximately 7,000 years for the life span of the gorge of St.
Anthony’s Falls. Consequently the Falls of St. Anthony and Niagara
Falls both give us a time scale of about 7,000 years for the
duration of our present epoch of time.
The Falls of St. Anthony, when they were located at Fort Snelling,
were 110 feet above the present river grade at that point. Now the
Falls are about 40 feet high. From these facts it is logical to
assume that there was a greater amount of undercutting of the
precipice of the Falls when they were higher and that the waters
then landed on the base rocks with much greater force.
There was
therefore a correspondingly faster upstream creep during the youth
of the Falls than during its old age. (The probable profiles of the
Falls at various times in the past, with plan and elevations, are
shown in Geological Survey, Folio 201, Minneapolis St. Paul, Minn.)
Geological evidence discloses that there were troughs for the bed of
the Mississippi River in former epochs of time. One trough now
buried commences on the Minnesota River about four miles west of
Fort Snelling, circles and joins the present river where the break
through of the present cutoff occurs just above the Falls of St.
Anthony. Here again the river’s bed or trough becomes wide and
eroded.
The Minnesota River occupies an oversize and eroded trough which
continues beyond its source, crosses the continental divide, and is
continuous with the channel of the Red River of the North which now
flows in the opposite direction.
These geological features show that a change of land elevation
occurred in this area about 7,000 years ago. The old river troughs
were cut in previous epochs. The narrow gorge or cutoff was created
during the present epoch.
The Mississippi River’s delta contains a record of the river’s age.
The number of cubic feet of sediment, and the number of millions of
tons of earth materials being carried southward by the waters of the
river and deposited in the Gulf of Mexico, have been determined with
fair accuracy.
Based on these data and the dimensions of the delta of the river, a
close estimate of the age of the delta can be made; this will also
give us the age of the present river. But estimates of the age of
the river already made by those whose opinions are most highly
regarded vary from 4,000 years to 138,393 years (Geological Bulletin
#8, Louisiana Department of Conservation). This wide variation in
expert opinion is due to the total lack of agreement as to which of
the many substrata of the river bed are to be considered as
belonging to the delta.
The head of the delta has been found, by different individuals and
groups, to be at various places including Keokuk, St. Louis, Cape
Girardeau, Commerce, the mouth of the Red River, and Baton Rouge.
Each of those places is probably a correct location for one of the
former delta heads, for there have been many.
The general acceptance of the new theory of a recurrently careening
globe will result in resolving all differences of opinion as to the
location of the head of the delta of the present Mississippi River.
Each time the earth careened a new delta head became established,
for the watershed existed as far back in geological time as we can
go.
During Epoch No. 1 B.P., preceding the latest careen of the globe,
the Mississippi River flowed from west to east in a tropical
climate. The Sudan Basin, now in Africa, was then at the North Pole.
In Epoch No. 2 B.P. the river flowed generally southward, in a
frigid climate. The Hudson Bay Basin land area was at the North Pole
and in summers glaciers fed the upper river.
Cores from borings have been taken in abundance by the Mississippi
River Commission to establish the approximate areas and depths of
the successive alluvial strata and to determine the various channels
of the old river in past ages. Variations in the character of the
fills and a study of the diatoms, algae, foraminifera, and other
fossil evidences will disclose changes of climate.
Remains of tropical vegetation and water life should mark the next
delta layer below the surface strata. Next below that should be
evidences of the flow off of the glaciers which melted at the
headwaters of the river at the very beginning of Epoch No. 1 B.P.
Below this, the evidences should disclose a cold water river whose
northern headwaters were fed by the North Pole Hudson Bay Basin
glaciers during Epoch No. 2 B.P.
To determine the age of the present river it is necessary to
identify the area and volume of the present top delta and divide the
weight of its cubical contents by the weight of the average annual
deposits of sediment.
The following table results from a preliminary effort to tie
together epochs and strata that are now generally recognized.
Epoch
|
Duration Years
Approximate
|
U.S. Geological Survey
Series of Epochs |
Mississippi River
Commission Designations for Sub
strata |
Present
|
7,000 |
--
|
Recent Alluvium |
1 B.P.
|
4,400
|
--
|
Jackson |
2 B.P.
|
7,000
|
Wisconsin Ice Age
|
Vicksburg Jackson |
3 B.P.
|
5,000
|
Peorian Life Age
|
Claiborn |
4 B.P.
|
--
|
Iowan Ice Age
|
Wilcox |
5 B.P.
|
-- |
Sangamon Life Age
|
Midway |
6 B.P.
|
--
|
Illinoisan Ice Age
|
Upper Cretaceous |
7 B.P.
|
--
|
Yarmouth Life Age
|
Lower Cretaceous |
g B.P.
|
--
|
Kansan Ice Age
|
Mesozoic |
9 B.P.
|
--
|
Aftonian Life Age |
-- |
10 B.P. |
--
|
Albertan Ice Age |
--
|
Great Salt Lake is a shrinking remnant of a much greater lake known
as Lake Bonneville which in prehistoric times filled the entire
present day land basin.
The Bonneville shore level, wave cut by the former lake, shows it to
have covered an area of about 20,000 square miles, with a depth of
1,050 feet. (Bulletin of the University of Utah, Vol. 30, October
1939, No. 4) . The area of the existing lake is about 2,000 square
miles, which is about the size of the land area of the state of
Delaware.
Proofs of the recurrent careenings of the globe have been developed
from the `original proposition that the continents of North and
South America lay along the equator, in tandem, during the epoch of
time just preceding the epoch in which we are now living. This
theory receives confirmation from the old shore lines, ’beaches, and
wave cut terraces in the rocks now high above the surface of Great
Salt Lake.
When the present lake basin was located in an equatorial area, it
received as great a rainfall as now prevails along the Amazon River.
Such torrential rainfall can be considered sufficient to fill the
lake basin to the Bonneville shore line level, since lake levels are
maintained by the balance between rainfall on the watershed and the
rate of evaporation, or where there is an overflow outlet by its
elevation.
Descriptions of soil borings confirm the lake basin’s tropical
location in Epoch No. 1 B.P., and also its successive locations in
tropical and nontropical latitudes.
Excellent illustrations of the
many different prehistoric shore lines and other features appear in
the comprehensive report on Lake Bonneville by G. K. Gilbert in U.S.
Geological Survey, Monograph #1, 1890.
Ice Ages
Louis Acnssiz, around 1845, first used the phrase ice age to account
for glacial markings on rocks.
Since then many persons have assumed,
erroneously, that the glacial markings indicated a change in climate
throughout the world. The term Ice Age is now used to define a
relatively small area, approximately within a circle, such as the
area now contained within the Antarctic Circle. We are now living
with what may be called "The Antarctica Ice Age." A lesser Ice Age
includes those areas of Greenland, North America, and Asia that lie
within the Arctic Circle.
Ice Ages have occurred in all the continents of the world, as
indicated by the tell tale scouring marks on successive layers of
rocks. These rock groovings always radiate from central points which
indicate the locations of the North Pole or South Pole of that
particular epoch of time. The surrounding polar areas never received
enough heat from the sun to melt the ice which accumulated from the
constant snowfall.
During each successive polar Ice Age the rest of the globe enjoyed
tropical or temperate climates, as at present. We know this because
the fossils of animal and plant life indicate the climates in which
each section of successive earth strata existed and they tell us
clearly that the globe has rotated on many successive Axes of
Figure.
Five successive Ice Ages have left their scars in land areas of
Canada and northeastern United States. Glacial markings on rocks,
loose boulders and debris, are in evidence over most of this area.
Life Ages have occurred in these same land areas between the Ice
Ages. These Life Ages were long intervals of time during which these
regions were free of glaciers, and were warmer than at present. Each
Ice Age blotted out the Life Age of a certain area and was, in turn,
succeeded by another Life Age in the same region. These changes were
sudden and without gradation.
The sudden birth of each Ice Age was paralyzing and destructive to
animal and plant life. Each Ice Age produced an ice cap which grew
to maturity and by its great weight depressed and dented the earth
beneath. The ice caps uprooted and carried on, under and within
their massive slowly moving bodies, enormous sections of rock and
earth to be deposited elsewhere; while, beneath the ice, the land
was gouged, earth and rocks were scattered all around, and valleys
and river beds were filled with debris.
The end of the ice caps did not come through slow withdrawal. When
they left, they disappeared just as rapidly as such huge masses of
ice can melt when moved to a tropical climate.
Evidences of the Life Ages are found under and above the successive
overlapping flows of till and glacial debris which have been
carefully charted by the United States Geological Survey. During
each Life Age animals and plants lived and multiplied, forests
flourished, bogs developed, brooks and rivers flowed, valleys
filled, while mountains and rocks eroded.
Fossil remains of animal and plant life are absent from the strata
of till and debris representing the five Ice Ages occurring between
the Life Ages. Absent also from these strata are the marks of
erosion of soil and rock and the usual evidences of the normal work
of rivers and brooks in filling valleys with transported sediment.
The waters had been changed to solid ice. Glacial debris is the sole
remaining evidence.
Today, those land areas are in a part of the globe which is Laving a
Life Age, while the land areas of Antarctica and Greenland are
passing through a temporary Ice Age. Canada and northeastern United
States are now in a second successive Life Age, since they once were
covered by an ice cap, or formed a frozen tundra adjacent to it.
In the area now known as New York State several whole mastodons have
been discovered, as well as parts of over two hundred mastodons and
of about fifteen mammoths. Like the mammoths found in Siberia and
Alaska, the whole mastodons were perfectly preserved after their
death by quick freezing and cold storage during the first Ice Age.
Also as in the case of the mammoths, they have been found with full
stomachs, indicating the sudden death of a healthy animal.
These mastodons lived in a warm climate, in Epoch No. 3 B.P.,
perished at the close of this period, and were buried in a flood or
by hurricane debris all of which froze solid. During Epoch No. 2 B.P.
they were interred in cold storage, the New York State area then
being frozen tundra, and the Hudson Bay area being at the North
Pole.
Subsequently, the North Pole was in the Sudan Basin area (during the
following epoch, No. 1 B.P. ), and the New York State area with its
interred mastodons was moved to the tropics. Both soil and dead
animals immediately thawed out; but the soil which preserved these
particular specimens must have been so moist that oxidation was
retarded.
Now they are in a temperate climate, during a second Life Age for
this land area, and are frequently found in a collapsed and
disintegrating condition.
There is much geological evidence to show that the last Ice Age of
the North American continent was caused by a great ice cap centered
in Canada that extended southward to present day New York City.
Moraines, eskers, clay beds, and other residual evidence of the
glacier exist in many places, including northern New Jersey and
southern New York.
A shallow dent in the earth, averaging 420 feet below sea level, now
known as Hudson Bay, marks the ice cap’s approximate center, while
the heights of land known as the Laurentian Shield and which almost
surround Hudson Bay, mark the final edges or lips of the main ice
bowl.
The watershed of the Hudson Bay Basin corresponds to the kind of
scar or dent in the surface of the earth which an ice cap could
make, and which it would leave behind as evidence of its existence.
Counts of the annual varves (layers) in clay beds at New London,
Wisconsin, and Hackensack, N.J., indicate that the Hudson Bay Ice
Age lasted for approximately 7,000 years!
The distance from the North Pole of Figure of the epoch, in Hudson
Bay, to the moraine of Long Island is approximately 1,800 miles.
Analytically, this compares with the distance from the present South
Pole of Figure to the ocean, this being about 1,800 miles for most
of the perimeter of the Antarctic Continent. At the Ross Sea the
distance is about 600 miles.
The flow offs of glacial ice, during the Hudson Bay Ice Age, were
distributed in much the same way as the present flow offs of glacial
ice in Antarctica. The ice flowed until it reached the ocean,
flowing faster in the direction of Hudson Strait and Davis Strait
than toward Long Island, N.Y., because the ocean was nearer in that
direction and the grade was correspondingly steeper; it accumulated
greater volumes of ice where the flow-off was most retarded.
In the southern region the grooves in the rocks show that the ice
was flowing south, but in the northern regions the markings show
that the ice was flowing north. Glacial striae caused by the
movements of this last North American ice cap, together with
displaced boulders, are in evidence as far south as Pennsylvania,
Ohio, and the Mississippi valley, and as far north as the Northwest
Territory of Canada.
The outstanding fact is that the ice radiated from a center in the
area now known as the Hudson Bay Basin. It did not spread southward
from the present North Pole area. The ice flowed away from a central
point; this shows clearly that the Hudson Bay Basin was then at the
North Pole of the Axis of Spin, and that the ice flowed in every
direction from the pole.
In Antarctica today the very same types of striations are being
created on the rocks, and boulders are continuously carried seaward
(from the South Pole) on glacial ice flowing northward.
Over a hundred years ago Louis Agassiz discovered glacial markings
in the Amazon Valley, along the Equador. On both sides of the Equator
within 18 and 20 degrees glacial markings have been found in Permian
rocks. In other regions of the world, tree specimens with annual
rings have been found in rock formations of the same age indicating
that temperate zone conditions prevailed in the regions where the
trees grew, at the very same time that polar region glaciers scoured
and striated the rocks at that time located near the poles but now
being near the Equator.
Ice Ages are recorded in rocks at random latitudes and longitudes
for all periods of geological history. For example, in all
continents glacial horizons are found in rocks classified in
geological textbooks as Pre Cambrian and Permian. Three of the Pre
Cambrian locations are in Africa, three in Asia, and two in
Australia. Five of the Permian glaciated horizons are in South
America. Five of the most recent Ice Ages are recorded in the rocks
of Canada and the United States.
In all cases where the records can be studied, it has been found
that the striae show radiations of the scouring ice masses from
central points. This gives adequate evidence in support of the
theory that the glaciated areas were at the poles of the earth in
the epoch of time during which each ice cap was developed.
They
moved away from the poles when they reached maturity and caused the
globe to careen.
Geological Outcroppings
THE age of various earth strata are determined by studying the
fossils found in them, and generally the lower strata correspond to
the earlier epochs of the earth’s history but not always.
Outcroppings of very old rocks appear in many places on the earth’s
surface instead of being buried deep in its bowels. The "Old Red,"
for example, a very hard and durable sandstone, which is classified
as belonging to the Lower Cambrian Period, is found as surface
outcroppings in New York State, in West Virginia, and Canada. It
should normally be buried at depths of three miles or more,
according to the geology charts.
Such facts indicate that the slow building up of the earth, epoch by
epoch, layer by layer, through ages of time, has not been an
uninterrupted process. A mighty cataclysm has taken away all the
overlying rock strata and the earth materials above the hard red
sandstone in the areas where the stone now appears as an
outcropping, but that same cataclysmic force was not on the loose in
those other areas where the overlying materials are still intact.
The gouging out and tearing away of earth strata to a very great
depth in certain areas have been caused by such materials coming
into contact, at high speeds, with masses of ocean waters churned
into a swirling flood during the careens of the globe.
This operational force of Nature is the logical reason why the "Old
Red" sandstones are being found as outcroppings on the surface of
the earth; isostasy accounts for the earth again being rounded off
following the new arrangements of the earth’s masses of land and
sea.
According to older authorities, the transporting power of water
equals the 6th power of its velocity. It is given as 3.2 to the 4th
power (3.24) by P. G. Worcester in his recent textbook in
geomorphology. He states that when the St. Francis Dam in
California
failed in 1928, blocks of concrete weighing more than 10,000 tons
were carried more than half a mile down the valley.
During the transient cataclysms caused by land masses careening
against the ocean waters, the pressures created at maximum speeds of
careening are beyond the imagination of man. Vegetation is crushed
to a pulp and animals are obliterated.
The ancient earth materials which once covered the "Old Red"
sandstone, in successive layers, and which were torn loose and
washed away by one of the great deluges, are now superimposed
somewhere on more recent earth strata, and may be either heaped in
ridges or blocks or spread widely in conglomeratic strata.
In Cuvier’s "Essay on the Theory of the Earth" it is stated that,
"Mr. Kerwin has given weighty reasons for his belief that the globe
has been, at some remote period, most violently assailed by a mighty
flood from the southeast. Tearing up and bearing away the looser
materials of the southern hemisphere, it has brought a great body of
them to the northern, and impressed upon the capes of Good Hope, of
Horn, and Van Diemen’s Land (Tasmania), and other promontories, the
marks of its overwhelming force."
There is geological evidence that mountains have been cut off and
carried away during the cataclysms of the deluges.
Miles of telltale
slanting rocks exist in normal formations which appear to have been
cleanly cut off. A fairly level plain is now all that remains where
once a mountain stood at Joggins, Nova Scotia, on the Bay of Fundy,
where the fossil forests are also on display.
Martin Gardner, referring to Chief Mountain in the Alberta Montana
region of the Rocky Mountains, where older strata are found resting
on younger, states that,
"In its form the fault line of the overthrust can be seen clearly, with slickened faces of rock which
testify to the faulting movement." He mentions Hart Mountain in
Wyoming as another upside down spot, and he states, "The fault line
is easily traceable for some twentyfive miles."
(Facts and Fallacies
in the Name of Science, Page 130. )
Table Mountain, at Capetown, South Africa, rises 3,500 feet above
sea level. It consists of horizontal layers of sedimentary rocks
still intact.
All of the surrounding layers of rock were gouged out
and washed away by the impact of the ocean waters when the southern
tip of the continent of Africa spearheaded the southward careen of
that continent during the latest great deluge.
The gouged out profile of Table Mountain and other land strata of
the southern tip of Africa illustrate the effects of some of the
forces of nature which were active when that continent careened
southward into, under, and through the inert ocean.
The oceans
around Africa became extremely turbulent because of the sudden
change of ocean depths with change of latitude, and because of the
motion of the great land mass which careened into them. It was the
reverse of an ordinary flood or of the overflow of a mighty river.
In this flood the land moved against the waters, and the waters then
rode up over some of the land.
The Koran confirms the mechanical force of the flooding waters: "The
earth’s surface boiled (seethed, roiled) up . . . the Ark moved . .
. amid waves like mountains."
It was upon these temporarily turbulent waters, near the east coast
of Africa, that the vessels of Noah and Deucalion rode this latest
flood; the land below them careened southward, until Noah’s barge
bumped or was bumped by the summit of Mt. Ararat, and
Deucalion’s
life saving chest ran aground on Mt. Parnassus.
There are remnants of tablelands in a great many places throughout
the world; here layers of sedimentary rocks, which previously have
been below the surface of the earth are at the surface in the form
of gouged out ends or sides of mountains, butts and hills, exposing
great numbers of the successively created horizontal
stratifications, all cut off cleanly, stripped from top to bottom.
Typical examples can be seen at Monument Canyon, Arizona, in
Yellowstone National Park, in South Dakota and western Nebraska,
near Banff in the Canadian Rockies, near New Haven, Connecticut, and
at the Delaware Water Gap. Most of these cutaway mountains and butts
represent what was left when the waters of a great deluge tore away
all the land excepting the gouged sections still standing intact as
mountains.
The exposure of the inner layers of these ravaged
mountains is indicative of the force of the impact of land and water
during the cataclysms produced by the careenings of the globe.
Another reason for the occurrence of older rock formations on top of
younger is the transportation work of glaciers. The compound word
"Ice Age" created only about 100 years ago, and the ice age theory,
suggested at that time, enabled puzzled geologists to account for
the appearance of "foreign" rock materials in many places, and for
many of the unconformities in successive earth strata.
A few miles south of Lake Erie, near Jamestown, N.Y., there is a
huge erratic block of whitish stone perched on the summit of a small
mountain range of brownish stone. It marks the spot it had reached
when the glacier it was riding turned to water. It settled down like
a Noah’s Ark.
The copper bearing rock formations of Arlington and Kings land,
N.J., are not native, but are erratic blocks, transported by ice
from some as yet unidentified region, and dropped when the ice
melted. There are many similar erratic blocks in many parts of this
and other countries.
Long Island, N.Y., was created by glacial action, being a terminal
moraine in its north sections and an outwash plain in the south,
formed by the heavy loads of silt, sand, and gravel carried by the
streams emerging from beneath the last North American glacier. In
Boston Harbor the islands are composed of glacial till and their
long axes are parallel to the direction of the flow of the ice.
They
are called drumlins, and were left by glaciers.
When the great size and carrying capacity of the recent consecutive
North American polar glaciers are analyzed and fully appreciated,
many other unconformities of earth, rocks and small mountains will
be adjudged to have been glacially transported to their present
locations.
The Oldest Rocks and the Age of the Earth
THE oldest rocks about which we can have any definite knowledge are
those within our physical reach.
We know well the rocks from various
earth strata that have been obtained from mine shafts, tunneling,
and well drilling. We also know well rocks which have formerly been
buried, perhaps three miles below the surface, but are now exposed
as outcroppings. But what we know about other rocks must remain
hypothetical being in the nature of philosophic geology.
Nevertheless, we do possess much valuable information. As tentative
as our calculations and theories must be, they are supported by
substantial evidence which serves as a basis for initial theorizing
and as a guide for future research.
A legible record of the frequent careenings of our globe, with
specimens of animal and plant life of each epoch, is contained in
the great stone book whose pages are the successive strata of the
earth’s materials thousands of which have been penetrated and have
been sampled and identified on the basis of cores from drilling.
Men have explored beneath the surface of the earth to a depth of
approximately five miles by boring in search of oil, and to lesser
depths in search of water and other minerals. The evidence brought
up in the drilling cores proves that the earth is built up of
layers. There is no reason why the strata of the earth below those
penetrated by the deepest well drilling should have been created in
a different manner from the strata above.
From the depth of the strata encountered in the deepest drilling to
date, their average thickness, and the total number of
layers, we can estimate the age of the rocks penetrated. On the
basis of data indicating the ultimate depth of the earth’s
stratifications, we can estimate the age of the earth.
The deepest drilling on record penetrated 25,340 feet below the
surface of the earth. It was drilled in 1913 by the Phillips
Petroleum Company in the Pecos Field in Texas. The average strata of
the earth through which it penetrated, as shown in the Spur Ranch
Drilling data of the next chapter, were approximately 13 feet in
thickness, and each stratum was created during an epoch lasting
approximately 6,000 years.
Hence, 25,340 feet divided by 13 feet per
layer yields the number of epochs transversed by the drilling 1,949.
This figure multiplied by 6,000, the average duration of each of the
recent epochs, gives the approximate age of the rock stratum at the
bottom of the well 11,694,000 years.
The oldest rocks about which we have any accurate knowledge are
therefore around twelve million years old. Factual evidence of rocks
that are older is not available at present.
A further analysis of the age of rocks, based on the new theory of
continuous creation and the constant buildup of materials of the
earth, is given in Part III, "The Origin of the Earth’s Materials."
There is no known reason why the strata below those penetrated by
the deepest well drilling should have been created in a different
manner from the strata above. Thus, by determining the ultimate
depth of rock strata in the earth, we can estimate the age of the
earth in roughly the same manner that we determined the approximate
age of the oldest rocks we know. This is done with the aid of depth
soundings; by artificially creating shock waves through the earth,
akin to the shock waves of earthquakes, we can measure the depth of
the rock strata.
The estimated depth of solid materials which exist and transmit
seismic waves between the core of the earth and ground level are
discussed in Encyclopaedia Britannica and in Physics of the Earth,
Vol. VII, published by the National Research Council. Terrestrial
depth soundings have indicated that there is something about 1,850
miles below ground level from which the impulse waves bounce back to
the surface. This is assumed to be the core of the earth.
In order to determine fairly exactly the age of the earth, however,
the figures used so far must be adjusted.
We have said that presently available data show that the upper
strata of earth materials each required about 6,000 years for their
creation. This is the estimated duration of each epoch during which
the upper layers were formed. However, it seems logical to assume
that the time periods between careens of the globe were shorter when
the globe was smaller.
Thus, 4,500 years between careens of the
globe are assumed for this tentative calculation of the earth’s age,
and the rate of buildup of earth materials is set at 9% feet per
epoch instead of 13 feet.
According to these estimated figures, then, the number of feet from
the surface of the earth to its core (1,850 x 5,280 ) divided by the
number of feet per stratum (9%) indicates that the impulse waves
travel through one million strata to reach the core. Taking 4,500
years as the duration of each epoch, we find the age of the earth to
be approximately 4’2’ billion years.
As suggested throughout, these figures for the age of the earth and
the age of the oldest rocks known are tentative. They are based
solely on the Spur Ranch Drilling, but this one was more accurately
supervised than the many commercial drilling. Many similarly
supervised drilling in numerous areas the world over must be made
and compared to enable one to make more perfect estimates.
More
accurate data are also required regarding the duration of the
successive epochs.
Epochs of Geological Stratification
THE word "epoch" as here used denotes the period of time, during
which the globe rotated on any one axis of figure.
The careening
globe theory is supported by evidence to the effect that most of the
land areas of the earth have changed their latitudes, and that major
changes in the arrangement of the materials of the earth’s surface
occurred in, and marked the end of, each of these epochs.
The theory is one of normal and natural cataclysmic changes
occurring at the end of each epoch, and of other normal and natural,
but slower, changes being continuously wrought during each epoch,
both types of change being the natural results of definitely
identified operational and creative forces of nature.
The history of the earth as written in the rocks indicates that both
kinds of change have taken place. Fossil evidence proves that many
different kinds of animals, reptiles, fishes, shell fish and plants
lived for long periods of time and then ceased to exist.
The fossil remains of extinct forms of life now buried in the depth
of the earth show that they once lived on the surface of the earth
or in surface waters. They are found in the oldest rocks known, and
are found in cores brought up by the deepest oil well borings. They
show us that the creation and development of animal and plant life,
and of earth materials, in the upper five miles of the earth’s
materials have been gradual and continuous for the whole earth.
The most recent epochs can be counted by an examination of the upper
layers of the earth’s materials much as the age of a tree may be
determined by counting the number of rings on its stump; and, just
as the climate prevailing during each year of the tree’s growth can
be learned from the condition of each ring, we can analyze the
condition of each of the earth’s layers. There is a difference,
however; while a tree has one ring per year, an epoch may be
represented by several layers in any one local area, or some of the
strata may be missing.
Numerous and various non-conformities will be found varying with the
geographic location of each area during each epoch. For example: a
local stratum may be developed from organic life, from vegetation
and animals, together with dust and dirt carried by wind and water;
this soil may then be all or partly washed away by the waters of one
of the world deluges, or may become covered by sand and flood
detritus or by the glacial drift of an ice age.
At this point in our examination of the evidence for the careening
of the globe we can piece together the materials we do have to
describe the recent geological epochs.
The age of the epoch in which we now live is tentatively estimated
at 7,000 years. It will be a useful yardstick, especially when
comparing the length of our epoch with the life span of earlier
epochs. However, it may be adjusted when better evidence becomes
available.
A period of 7,000 years conforms approximately to the historical
period, beginning at or about 5000 B.C., and also to the time scales
of the gorges produced by the Niagara and Mississippi Rivers.
Materials containing Carbon 14, properly identified as having been
contemporaneous with the last great cataclysm of the earth, can be
counted on to produce close estimates of the elapsed time since that
cataclysm occurred. Carbon 14 dating of mammoths, rhinoceroses,
mammoth trees, and other vegetable and animal remains buried in the
tundra of Siberia and elsewhere at the time of that cataclysm, may
disclose ages of less than 7,000 years. The more data we obtain on
this subject the shorter the elapsed time seems to become.
The idea occurred to me that the perfectly preserved mammoths found
in the Arctic tundra had possibly been reeled from a tropic to a
frigid zone; and that, if so, perhaps I could find some evidence to
that effect.
I imagined having an 8 inch globe of the earth in my hands, then
throwing it into the air, and making it stay there and spin around.
I thought that North and South America would ride along the Equator
of Spin, due to their weight and the corresponding centrifugal
force, provided I kept the globe spinning.
It seemed common sense to say that the earth would naturally rotate
with its heaviest masses stretched out along the Equator, because
the centrifugal force throws the greatest weights to the periphery
or equator of any freely suspended rotating mass. And yet, quite to
the contrary, the mighty Rocky Mountains and Andes Mountains are not
now stretched along the Equator.
My theory was that if I could plot a circumference of the earth
which might have been the Equator when the mammoths were living just
prior to the latest careen of the globe then I might be able to find
some evidence of a polar area 90 degrees of latitude away from that
Equator, and this would prove the theory to be correct.
I was curious enough to make a trip one Saturday afternoon in 1913
to the Public Library of Erie, Pa., where I then lived. I took along
a spool of ’e inch wide red ribbon, and tied the ribbon around a
three foot globe of the earth, which stood in the middle of the main
library room. I remember that I felt self-conscious at first, but
soon guessed that the other library patrons must think that I was
just one of the men who worked there, for they paid no attention to
me, and I worked leisurely. What was routine at the time, now in
retrospect looms as a momentous occasion.
I tied the first ribbon in a great meridian circle, or Equator like
line, along the great ridges of the Rocky Mountains and the Andes
Mountains. It divided the globe into two equal halves. On the
opposite side of the globe, I was interested to note, the ribbon
traversed East Asia and the shallow seas surrounding the Malay
Peninsula.
I tried to make it represent the meridian or equatorial
band traversing the heaviest land areas, and it seemed that the land
zones it touched far outweighed any other circumferential belt of
the earth’s surface that I could have selected.
Then I attached two other ribbons representing great circles of the
earth at random places, but taking particular pains that they were
at exactly a 90 degree angle to the first band. The idea was that I
might find some evidences of former polar areas where these two
upright ribbons intersected each other, for the intersections would
mark the locations of polar centers, at the moment of time that my
first ribbon was an actual under the sun equator.
One intersection was found to be at Lake Chad, Africa which I
thought might give me a clue; the other intersection was located in
the Pacific Ocean, and no clue came to mind. I recall
writing "Lake Chad" on a piece of paper, with a resolve to try to
find out something about it. I was looking for evidence of glacial
action, or of a dent left in the earth by an ice cap.
I was
astonished to discover just what I was looking for: the great Sudan
Basin of Africa.
"In North Africa there is a vast space of upwards of four million
square miles, extending from the Nile valley westward to the
Atlantic coast, and from the plateau of Barbary in the north to the
extremities of the basin of Lake Chad in the south, from which no
single river finds its way to the sea. The whole of this space,
however, appears to be furrowed by water channels in the most varied
directions.
"From the inner slopes of the plateau of Barbary numerous wadys take
a direction toward the great sand belt of the Erg, in which they
terminate; a great series of channels appear to radiate from the
higher portion of the Sahara, which lies immediately north of the
tropic of cancer and in about 5 E. of Greenwich; another cluster
radiates from the mountains of Tibesti, in the eastern Sahara."
Encyclopoedia Britannica, 9th edition, Vol. I, page 255.
This formation could be the natural result of the torrential run off
of melting glacial ice, turned to water by a blazing tropical sun,
when the Sudan Basin Ice Cap reeled from the North Pole of Spin and
melted near the Equator, about 7,000 years ago. The innumerable
watercourses without any apparent relation to one another remain as
tell tale evidence.
Lake Chad has one outstanding peculiarity. It is a freshwater lake,
and yet it does not have an outlet to the sea. There is not another
lake like it on the surface of the globe.
It is generally understood that lake water remains fresh by
surrendering its salts to the oceans, through run offs, or
overflows. With the exception of Lake Chad, the large lakes without
outlets to the sea are salty. They were filled with sea water when
first created at the beginning of the present epoch. Some such as
the Caspian Sea probably overflowed and lost their salt contents due
to the excessive humidity created by the melting of the Sudan Basin
Ice Cap and the eastward flowing air currents, but these lakes later
shrank, lost their overflows, and have since accumulated mineral
salts.
Salts are carried and brought in by the incoming tributary rivers
and streams. As indicated before, the water levels of lakes are
determined by the ratio of incoming water to evaporation. During the
approximately 7,000 years of its existence Lake Chad has not
accumulated sufficient salts from its tributaries to cause it to
become salty. It remains a fresh water lake without an outlet to the
sea.
During the rainy season Lake Chad overflows its normal basin. The
Encyclopaedia Britannica statement adds that it fertilizes the wadys
including the great wady or basin to the northeast, into which it
overflows. This indicates that the overflow does not purge the lake
of salts to any extent, because if it did, the soil in the
overflowed areas would become salty and not fertilized.
The Equator of the last epoch of time prior to our own was a line
along the Rocky and Andes Mountains. If the earth careened 80
degrees of latitude, instead of 90 degrees, then Lake Chad would not
be the polar center of the previous North Pole Ice Cap. Lake Chad is
located several hundred miles southeast of the center of the Sudan
Basin.
The Sudan Basin is in the center of the north lobe of that
continent. The accumulating ice mass, which created the great
depression of that basin, was landlocked and therefore it did not
have a chance to flow off the land into the sea through the force of
gravity, in the manner that the glacial ice now flows off the
smaller continent of Antarctica. This fact, together with the
probability that a smaller ice cap grew at the South Pole of that
epoch, would appear to account for Epoch No. I B.P. having had a
shorter life span than the epochs just preceding and following.
Further studies of the channels cut by the watercourses in the Sudan
Basin and of the glacial striations cut on Canadian rocks may be
expected to show that neither Lake Chad nor Hudson Bay were the
exact centers of the North Pole Ice Caps of those two epochs.
But, Lake Chad and Hudson Bay give us two
points of reference; they have moved approximately equal distances
from the Pole of Spin each time that the earth has careened and are
therefore useful references to the approximate polar points of their
epochs.
The Hudson Bay Ice Cap has left a more sharply marked, and larger,
dent in the earth than has the subsequent Sudan Basin Ice Cap. The
Hudson Bay Ice Cap took a roughly 60% longer time to grow and
therefore made a larger and deeper basin than the Sudan Basin Ice
Cap. The process of isostasy, tending to raise sunken areas, adds to
the difficulty in reading the records correctly.
When the Sudan Basin Ice Cap moved away from the North Pole of Spin,
it did not go all the way to the Equator, because by the time it
reached its present position, the new bulge of the earth had become
established. The Sudan Basin Ice Cap and the new bulge of the earth
were soon traveling along together, at the rotation speed of the
earth or about 1,000 miles per hour.
The careening speed of the Ice Cap had practically vanished and its
eccentric pull of centrifugal force had now been changed from a
sideways pull to an upward and outward stabilizing force. Isostatic
equilibrium had once again become established, subject to
readjustment through earthquakes, until the Ice Cap had completely
melted.
Thus Epoch No. 1 B.P. ended at the time of the latest world flood,
and the present epoch commenced. During Epoch No. 1 B.P. the Sudan
Basin area of Africa was occupying the area at the North Pole of
Spin. The continents of North and South America then lay in tandem
on one side of the globe, along the Equator, and the eastern parts
of Siberia and China were on the opposite side.
The time estimate suggested is based on recent advances in
pinpointing geological time by measuring the amount of Carbon 14
remaining in sample specimens of wood. Wood from an ancient forest,
uncovered in a lower stratum of the earth at Two Rivers, Wisconsin
geologically tied in with the ending of the latest North American
Ice Cap, often referred to as the Wisconsin Ice Age was analyzed for
its Carbon 14 content..
Its age was found to be approximately 11,400 years old. The
literature dealing with this ancient Wisconsin forest contains many
reports on its age, varying from 11,000 to 12,000 years. I have
chosen to use the report by the foremost authority in this field,
Willard F. Libby, who arrives at a figure of 11,400 years.
If we subtract 7,000 years, the estimated age of our present epoch,
from 11,400 years, we are left with 4,400 years as the duration of
Epoch No. 1 B.P. The figure is subject to correction when better
data become available.
During Epoch No. 2 B.P. the geological dent of the Hudson Bay
watershed contained the North Pole and its ice cap, while
South America, Africa, Borneo, and India lay along the Equator. During
that epoch clay beds were laid down by silt, presumably carried by
glacial streams flowing in summer from beneath the edges of the
Hudson Bay Ice Cap. Each layer of clay called a varve corresponds to
a single year’s growth of the clay beds; thus the approximate
duration of that epoch may be set at 7,000 years.
The identification of this former North Pole area is based on the
fact that its distance from Lake Chad in the Sudan Basin of Africa
is approximately the same as the present distance of Lake Chad from
the North Pole, which, in turn, is the distance through which the
Lake Chad area moved during the latest careen of the globe. All
careening moves cover about 80 degrees of latitude.
The depression now occupied by the Caspian Sea seems to have been
the location of the North Pole during Epoch No. 3 B.P., because its
bowl as well as that of the Black Sea was formed by a depression
caused by an ice cap.
The Caspian Sea is located in a large low lying land area called the
Caspian Depression and is the focal drainage center which gathers
the gravitational downhill water flow of several large rivers,
including the Ural and Volga rivers. This sunken Caspian area has
geological similarities to the depressed areas in which Hudson Bay
in Canada and Lake Chad in Africa are located.
All three are
drainage centers for extensive river systems
in very large areas, and have been depressed into basin formations
by the weight of the ice caps of former epochs.
We know that each successive ice cap leaves a depression in the
land, and each careen of the globe moves both the North and South
Pole ice caps distances of about 80 degrees of latitude around 5,500
miles.
With this information as a guide, we can identify the
locations of former poles of many successive epochs. We find
approximately the same distances between the Caspian Sea and
Hudson
Bay, between Hudson Bay and Lake Chad, between
Lake Chad and the
present North Pole.
The one observable clue to the duration of the Caspian Basin epoch
No. 3 B.P. is that it did not permit a ready flow off of the ice to
the oceans. It appears to have been landlocked. Therefore, it is
assumed to have had a shorter life span than the Hudson Bay Basin
epoch No. 2 B.P. It was more like the Sudan Basin Ice Cap of Epoch
No. 1 B.P. Possibly, a duration of 5,000 years is a fair estimate.
The recent geological history of the earth subject to being
corrected when better data become available may be summarized as
follows:
-
Epoch No. 3 B.P. began about 23,400 years ago and lasted around
5,000 years. The Caspian Depression was at the North Pole of Spin.
The New York State mastodons were living in a tropical climate.
-
Epoch No. 2 B.P. lasted around 7,000 years. The Hudson Bay was at
the North Pole. The New York State mastodons were in cold storage
like the Siberian mammoths of today.
-
Epoch No. 1 B.P. lasted around 4,400 years. The Sudan Basin of
Africa was at the North Pole. The New York State mastodons were
buried in the tropics. The Siberian mammoths were grazing in an Eden
like climate in or near the tropics.
Our own Epoch has already lasted about 7,000 years. The Arctic Ocean
is at the North Pole. The mammoths are buried in frozen tundra in
Siberia and Alaska.
The mystery of how the earth was created and built up can now be
explained through the rational and understandable display of factual
evidence. We now know just how the various layers of rock, sand,
shale, etc. with their telltale specimens of former animal and plant
life came to be laid down in the strata in which they are now found.
For example: A piece of live fresh wood resembling red cedar was
found during the excavation made for the foundation of the Chase
Manhattan Bank building at 18 Pine Street, New York City. It was
found three feet below the top surface of a layer of hardpan, which
in turn was about sixty feet below the surface. The tree probably
grew in Epoch No. 2 B.P.
In the excavation made for the foundation of the New York Telephone
Company’s building at Barclay and West Streets, New York City, the
contractors came across the prostrate trunks of several juniper
trees with bark and branches intact. At 45 feet below high tide
level they came across a bed of peat eighteen inches thick. The peat
bed had grown where found; probably the trees also. These might
tentatively be classed as growths of Epoch No. 1 B.P.
Parts of whale skeletons have been found on Long Island, N.Y. These
are tentatively classed as belonging to our present epoch, because
during this period of time the ocean waters are assumed to have
receded and now make up part of the ice and snow in the Antarctic
Ice Cap; also, the dearth of top soil on Long Island lends support
to the idea that it has not had its present size during the
approximately 7,000 years of our epoch.
Clay beds abound in the vicinity of New York City; they are found
with layers of sand, gravel, loam or topsoil, etc., superimposed
upon them. Facts such as these agree with the theory of the careenings of the globe.
By assuming that there was land at the edge of the Hudson Bay Ice
Cap, during Epoch No. 2 B.P., it follows that silt from the glacial
streams settled in lakes or rivers and formed these clay beds. Since
then, two world deluges and two epochs of time have occurred, during
which the layers of overlying materials now being found were
developed.
Clay beds are normally laid down in layers of silt with different
colors and textures. These varves contain a record of each year; in
some instances they indicate the climate, rainfall, and vegetation,
by the color, thickness, and texture of each varve.
A physical time scale for our present epoch has been developed from
a study of varied clays by the Swedish scientist Gerard De Geer. He
fixed the beginning of the post glacial epoch at about 8,700 years
ago. He counted the number of varves in clay beds in river valleys
running north south, assuming a gradual ascension, like a long
staircase, as the ice retreated northward, and tying in the top
varve of one clay bed with a lower varve of a higher bed. He called
it the Swedish Time Scale.
De Geer reported the following numbers of clay varves from locations
presumed to have been at the Ice Cap’s edges:
Location |
Count made by
|
Number of varves |
Hackensack, N. J.
|
C. Reeds
|
6,984
|
New London, Wis.
|
E. Antev
|
6,984
|
Manitowoc, Wis. |
E. Antev
|
6,942 |
Menominee, Wis. |
E. Antev
|
6,855 |
Wrenshall, Minn.
|
E. Antev
|
6,700 |
|
His time scale shows a longer period than the River Gorge Time
Scales. This could be attributed to the clay varves of the same year
having been counted at two different locations.
Below the 8,700th varve, approximately, De Geer came upon a
giant varve. This evidence fits the theory of the careening globe, because
the giant varve marks an abrupt change in the formation of the clay
deposits occurring about 8,700 years ago. There is also evidence to
indicate that Sweden was located in a different and warmer latitude
during the previous epoch of time.
The De Geer Time Scale shows that it is possible to ascertain the
approximate duration or length of time of many former epochs, by
counting the varves in clay, slate, and shale deposits.
Many counts
of the number of varves in clay beds have been made and registered,
but no systematic attempt has as yet been made to associate the
numbers arrived at with epochs of time.
Reappearance of Organic Matter in Clays
THAT vegetation which is blotted out beneath the glaciers of an ice
age reappears in the clay beds which have been formed by the silt
and other matter carried by summer streams flowing beneath some of
the glaciers.
This burden of various kinds of matter carried by
flowing waters is deposited on the bottoms of lakes and rivers when
the velocities and carrying capacities of the waters have been
lowered or reduced to zero.
Clays are partly derived from vegetation, many of them possessing
considerable percentages of organic matter. This appears in
colloidal particles from less than .002 millimeters in diameter down
to sub microscopic. They are the parts of the clays which absorb
moisture, and all bear a negative electrical charge when in contact
with water, thus showing a certain relationship to cellulose and
carbon, both of which are also vegetable matter and acquire negative
charges when in contact with water.
The organic matter in clays has been generally attributed to
animalculae, algae, and microscopic growths; but tropical forests
were another available source of the organic matter found in some of
the clay beds developing at the edges of glaciers in former ice ages
such as the five which recently prevailed in northern North America
and similar to the ice age now embalming Antarctica and Greenland
with glaciers.
Each time the globe has careened, tropical land areas, covered with
vegetation and forests, have moved to the polar regions.
Theoretically, the vegetation must have become crushed and pulped
into colloidal particles by the weight and movement of the overlying
ice masses. The lower varves will correspond to the earlier years of
the epochs during which they were laid down; the upper layers will
similarly correspond to the later years of the same epochs.
More
organic or vegetable matter will be found in the lower varves and
less in the upper varves. Research on the structures of clays may
eventually enable us to identify some of the organic matter as
having come from crushed forests.
Proofs of the theory that vegetation covered the land when the ice
cap first commenced to form should evolve from further study of the
varves in the clay beds at Hackensack, N.J., Wrenshall, Minn., and
elsewhere.
It is natural to assume that such vegetation, when crushed and
ground into colloidal particles, would float in the waters
underneath the glaciers, and would thus be carried off and deposited
as basic elements of the clay beds. As the limited amount of
vegetation was thus disposed of, there must have been less and less
available, so that the upper and later varves of the clay beds
should show less organic and more mineral silt; the lower or earlier
varves, on the other hand, should show more cellulose or organic
matter in proportion to the inorganic materials.
Much carbon generally believed to be of organic origin is found in
the oldest rocks, classed as Pre Cambrian; but here it is generally
found in an amorphous condition, and this may be postulated as
having been caused by the pressures and attritions to which the
organic materials were subjected. For example, rocks of the
Laurentian Shield of Canada are classed as Precambrian because of
the lack of "guide fossils," and for no other major reason.
They
reveal the scouring of the ice cap of the Ice Age that followed the
Life Age which had developed the organic materials ground to a pulp
by the ice masses. Carbon appears in some of the black shales of the
Lake Superior region. That area was so far inland that the glaciers
apparently did not have a chance to purge themselves of the carbon
by emptying it into the oceans, as they did to the east, north, and
south.
The organic materials of the Laurentian Shield have become so
crushed and reduced in the tillage that few organic forms can be
identified in those rocks. It is probable that the same kind of pulpification of the tillage is in process, right now, at the bottom
of the Antarctic Ice Cap described later under the section on POLAR
regions and it is questionable whether any guide fossils will be
found in the rocks that form the floor of the ice bowl of the
Antarctic Ice Cap.
Under the presently accepted theory the rock floor of that ice cap
should therefore automatically be classified as Precambrian, due to
lack of guide fossils on its surface areas.
Georges Cuvier of France and William Smith of England announced
their independent discoveries, at the close of the eighteenth
century and beginning of the nineteenth, to the effect that each
stratum of the earth contains fossils peculiar to itself, and that
the successive earth layers can be classified accordingly and to
some extent dated as to age.
Cuvier found bones of mammoths and of many other extinct prehistoric
species of life, and also of many extant species, in the different
underground layers of the earth in the environs of Paris. He
revealed that a typical series of successively created earth strata
shows:
-
earth layer with fresh water shells, indicating that a lake had once
existed there;
-
earth layer with marine shells, indicating that the area bad once
been part of the ocean bed;
-
earth layer with fresh water shells; earth layer or marl;
-
earth layer with marine shells; earth layer of clay no shells;
-
earth layer of chalk, formed from skeletons of globigerina, which
once lived in the ocean.
Cuvier saw with his own eyes and reported the effects of cataclysms
in the formations of the layers of the earth. He found that the
changes brought about had been sudden, without gradation. He looked
for a possible cause and referred to the successive catastrophic
changes as revolutions of the earth. He conjectured that the North
Pole once had been in the area of the Sandwich Islands (Hawaii).
Since Cuvier’s days geophysical discoveries of major importance have
been made; they include:
The Antarctic Continent
|
1820 |
Ice Ages
|
ca. 1845 |
Wobble of the Globe
|
ca. 1885 |
South Pole Ice Cap
|
Recent |
Continuous Growth of Ice Cap
|
New |
Continuous Creation of Earth Materials by Photosynthesis
|
New |
|
|
Much of the mystery previously connected with earth strata, and the
problem why successive types of fossils appear therein, are fully
explained when these new discoveries are added to those reported by Cuvier.
A communication from the Chief, Paleontology and Stratigraphy
Branch, U.S. Geological Survey, states:
"The paleontological
collections of the U.S. Geological Survey verify that in some
localities in the United States and its territories rock strata
containing alternating horizons of marine and non marine fossils do
occur."
Again the usefulness of identifying the different species of fossils
in each earth stratum is emphasized for horizon markers, (Geological
term: deposits of certain period, identified by fossils present.)
and lists of fossils are given for each formation, by W. M. Winton
and W. S. Adkins in University of Texas Bulletin, No. 1931, June 1,
1939.
They state:
"Some fossils appear in recurrent zones, that is,
zones between which the fossils in question have never been found."
Atlantis - Plato’s legendary land - receives a theoretical
validation by the discovery of fresh water types of diatoms at the
bottom of the Atlantic Ocean.
Geologists of the Riksmuseum,
Stockholm, Sweden, have examined cores taken from the sea bottom of
the tropical Atlantic Mid Ridge, about 12,000 feet below sea level,
and have identified algae exclusively of freshwater origin; this is
proof that this area with its fresh water lake in which the diatoms
lived was once above sea level.
The change in altitude is postulated to have occurred about 7,000
years ago, when the great Sudan Basin Ice Cap, which grew at the
North Pole of Figure of the last previous epoch, reached maturity
and was moved to the tropics. The fresh water lake land with its
diatoms was at that time rolled around to its present tropical
underwater position on the globe.
The former position of this lake
land is determined by its distance from the great Sudan Basin of
Africa, which, as we have seen, is a telltale depression in the land
created by the weight of the North Pole Ice Cap of that epoch.
In theory, this lake land area was formerly positioned on the globe,
in relation to the last previous North Pole of Figure, at about
where the State of Oregon is now located in relation to the present
North Pole of Figure. It was transposed from about 44 N. Latitude
and 120 W. Longitude to where it is now located at about 14 N.
Latitude and 30 W. Longitude.
It was moved into the bulge of the
earth at a latitude where the ocean level is about four miles higher
than it was at its previous latitude (four miles further from the
center of the earth); thus, quite naturally, it is now under water.
Cores from the ocean bottoms, recently taken in the Arctic and the
southeastern Pacific Oceans, have been dated by radium chemical
analyses (table) :
ARCTIC OCEAN BOTTOM CORES V. N. Saks |
PACIFIC OCEAN BOTTOM CORES Jack L. Hough |
|
Horizon number
|
Contains foraminifera (small marine life)
|
Elapsed time from present (thousands of years) |
Horizon number |
Elapsed Time from Present (thousands of years) |
|
1 |
Yes
|
9-10
|
1
|
11 |
2 |
No
|
9-10, 18-20
|
2
|
15 |
3 |
Yes
|
18-20, 28-32
|
3
|
26 |
4 |
No
|
28-32, 45
|
4
|
37 |
5 |
Yes
|
45-50
|
5
|
51 |
6 |
No
|
over 50
|
6
|
64
|
|
(Saks, Below and Lapina in Our Present Concepts of the Geology of
the Central Arctic, translated from Russian, in publication T 196 R,
Defense Research Board, Canada; and Jack L. Hough in Journal of
Geology, May 1953, No. 3. )
The Russian scientists list alternating horizons as cold and warm.
Numbers 2 4 6 are listed as cold. Numbers 3 and 5 are listed as
warm. This is followed by the assumption that when the climate was
warm foraminifera were present and when cold the foraminifera were
absent in the core sections. This is obviously an erroneous
assumption, because foraminifera are reported present in horizon No.
1 and we know that the climate is now cold.
Commenting on the lowest horizon reached (No. 6 ), they state,
"It
seems that... a considerable part of the Arctic Shelf was dry
land."
The absence of foraminifera in certain sections of the cores
indicates that the areas were not, at that time underwater.
Foraminifera are found in both warm and cold waters. A dry climate,
with sparse rainfall is indicated for the core sections without
foraminifera, because the arctic area is surrounded by continents.
Many scientific papers have contained reports of the different kinds
of foraminifera growing in cold and in warm ocean waters. Their
presence in the successive strata, found in cross sections of cores
taken from the sea bottoms, helps to identify the successive cold
and warm sequences of former life at a particular location.
Alternating horizons of the earth’s strata with marine and non
marine fossils are not peculiar to arctic regions but are observed
in many regions. Drilling, mine shafts, and ravaged cliff sides in
many random locations have disclosed marine and non marine strata in
alternating layers, and also alternating cold and warm climate
fossils, indicating recurrent relocations of latitude and longitude
for all areas of the earth’s surface.
For example, the ratio of
Oxygen 18 to Oxygen 16 in calcium carbonate (CaC03), globogerinaidae
shells, is a function of water temperatures at the time of the
growth of the sea shells a sort of geological thermometer.
A communication from Captain Charles W. Thomas, (now rear admiral
retired, U.S. Coast Guard), a noted ice navigator of both the
Antarctic and Arctic regions, states that cores taken from the ocean
bottom off the coast of Antarctica and examined by him lead him to
conclude that the South Pole Ice Cap is not of great antiquity, but
that it is a recent phenomenon, its age being no more than a few
thousand years.
The cores showed the ocean bottom to have been formed in layers. The
top layer contains cold water radiolarians and deposition of ice
transported sediments. Below that layer is a layer from which the
cold water diatoms are missing; but they occur again in a lower
layer.
The repetitive occurrences, in alternate layers, of approximately
the same fossil materials in the earth’s strata disclosed by borings
made at different places on the earth’s surface confirms the theory
of the successive careenings of the globe. Comparing fossils of
fresh water and salt water foraminifera, diatoms and algae furnishes
clues to the conditions under which each horizon of the strata was
formed.
The fossils found in successive earth strata testify to the fact
that the layers of earth under any particular land area of the
present time have been located during former epochs at many
different places relative to the axis of rotation of the earth; the
fossils show that these earth strata have been both ocean beds and
upland areas in successive epochs, and they also confirm the fact
that life existed in tropical, temperate, and cold climates as
evidenced by the successive strata.
The fossils testify to the rotation of the earth on successive
random Axes of Figure because the variations exhibited by the
fossils in the successive layers indicate changes in climate as well
as changes from upland to marine locations, and vice versa; and the
combination of a change in climate and of a change to or from a
marine location can be accounted for only by a change in the
location of the Axis of Figure of the earth.
The following tabulation is the driller’s record of the deep boring
at Spur Ranch, near Rotan, in Fisher County,
Texas. It is taken from an article by J. A. Uddin in No. 365 of The
University of Texas Bulletin, Scientific Series 28, 1914. The
drilling was carefully supervised for the purpose of getting a
typical picture of the earth conditions underlying a spot selected
at random.
|
Feet below surface:
|
From
|
To
|
Thickness |
|
|
1. |
Brown soil
|
0
|
2 |
12 |
2. |
White porous material |
2 |
6 |
4 |
3. |
Yellow sand |
6 |
16 |
10 |
4. |
Sand and gravel, water |
16 |
23 |
7 |
5. |
Hard concrete of light color |
23 |
27 |
4 |
6. |
Tough red clay |
27 |
53 |
26 |
7. |
Hard concrete |
53 |
65 |
12 |
8. |
Isinglass (selenite) and red clay |
65 |
75 |
10 |
9. |
Hard, flinty rock |
75 |
85 |
10 |
10. |
Red clay and red sand rock |
85 |
98 |
13 |
11. |
White chalky rock |
98 |
101 |
3 |
12. |
Isinglass (selenite) |
101 |
108 |
7 |
13. |
Red clay and red sand rock |
108 |
115 |
7 |
14. |
Isinglass (selenite) |
115 |
119 |
4 |
15. |
Red sand rock, thick streak of red clay |
119 |
135 |
16 |
16. |
Red clay, thin streak of blue clay |
135 |
137 |
2 |
17. |
Red clay and sand rock |
137 |
149 |
12 |
18. |
Red clay and isinglass (selenite) |
149 |
153 |
4 |
19. |
Red sand and clay |
153 |
192 |
39 |
20. |
Isinglass (selenite) |
192 |
199 |
7 |
21. |
Red gumbo |
199 |
221 |
22 |
22. |
Isinglass (selenite) and gypsum |
221 |
223 |
2 |
23. |
Red gumbo |
223 |
239 |
16 |
24. |
Isinglass (selenite) |
239 |
254 |
15 |
25. |
Soft red sand rock |
254 |
272 |
18 |
26. |
Soft red clay |
272 |
285 |
13 |
27. |
White flinty rock and isinglass
(selenite) |
285 |
298 |
13 |
28. |
Sand, salt water |
298 |
330 |
32 |
29. |
White flinty rock |
330 |
403 |
73 |
30. |
Red sand rock |
403 |
468 |
65 |
31. |
Hard gray sand, and red sand |
468 |
532 |
64 |
32. |
Soft white clay |
532 |
538 |
6 |
|
33. |
White hard flinty rock |
538 |
540 |
2 |
34. |
White tough rock |
540 |
568 |
28 |
35. |
Hard white flinty rock |
568 |
570 |
2 |
36. |
Salt rock |
570 |
580 |
10 |
37. |
Brown sand rock |
580 |
586 |
6 |
38. |
Hard white flinty rock |
586 |
596 |
10 |
39. |
Brown sand rock |
596 |
603 |
7 |
40. |
Tough white rock |
603 |
624 |
21 |
41. |
Hard white flinty rock |
624 |
628 |
4 |
42. |
Hard brown sand rock |
628 |
633 |
5 |
43. |
Salt rock- No sample |
633 |
638 |
5 |
44. |
Light soft rock |
638 |
645 |
7 |
45. |
Hard sand rock |
645 |
674 |
29 |
46. |
Notes wanting |
674 |
688 |
14 |
47. |
Hard sand rock |
688 |
715 |
27 |
48. |
Soft sand rock |
715 |
725 |
10 |
49. |
Soft white rock, hard in streaks |
725 |
732 |
7 |
50. |
Salt rock |
732 |
741 |
9 |
51. |
Hard concrete sand rock |
741 |
773 |
32 |
52. |
White flinty rock |
773 |
778 |
5 |
53. |
Concrete sand rock |
778 |
804 |
26 |
54. |
Sand rock and red gumbo |
804 |
812 |
8 |
55. |
White flinty rock |
812 |
816 |
4 |
56. |
Red sand rock |
816 |
853 |
37 |
57. |
White flinty rock |
853 |
858 |
5 |
58. |
Red sand rock |
858 |
931 |
73 |
59. |
Hard blue rock |
931 |
932 |
1 |
60. |
Notes wanting |
932 |
958 |
26 |
61. |
Red sand rock |
958 |
1113 |
155 |
62. |
Gray lime |
1113 |
1117 |
4 |
63. |
Red sand rock |
1117 |
1123 |
6 |
64. |
Gray lime rock |
1123 |
1125 |
2 |
65. |
Red sand rock |
1125 |
1174 |
49 |
66. |
Soft white rock |
1174 |
1222 |
48 |
67. |
Gray lime rock |
1229 |
1235 |
13 |
68. |
Soft white rock |
1235 |
1250 |
15 |
69. |
Hard gray rock |
1250 |
1252 |
2 |
70. |
Hard limestone |
1252 |
1270 |
18 |
71. |
Very hard lime rock |
1270 |
1272 |
2 |
72. |
Hard limestone |
1272 |
1302 |
30 |
73. |
Very hard limestone |
1302 |
1309 |
7 |
74. |
Hard limestone |
1309 |
1313 |
4 |
75. |
Hard blue rock |
1313 |
1327 |
14 |
76. |
Hard limestone |
1327 |
1335 |
8 |
77. |
Blue rock |
1335 |
1337 |
2 |
78. |
Hard limestone |
1337 |
1341 |
4 |
79. |
Somewhat soft limestone |
1341 |
1347 |
6 |
80. |
Very hard limestone |
1347 |
1349 |
2 |
81. |
Lime and blue rock |
1349 |
1364 |
15 |
82. |
Hard lime rock |
1364 |
1370 |
6 |
83. |
Blue lime rock |
1370 |
1376 |
6 |
84. |
Hard lime rock |
1376 |
1390 |
14 |
85. |
Limestone |
1390 |
1391 |
1 |
86. |
Hard limestone |
1391 |
1397 |
6 |
87. |
Hard limestone with soft blue streaks |
1397 |
1403 |
6 |
88. |
Hard limestone |
1403 |
1419 |
16 |
89. |
Lime rock |
1419 |
1425 |
6 |
90. |
Hard lime rock with soft streaks |
1425 |
1433 |
8 |
91. |
Hard lime rock |
1433 |
1454 |
21 |
92. |
Hard lime rock with soft streaks |
1454 |
1461 |
7 |
93. |
Hard limestone |
1461 |
1478 |
17 |
94. |
Very hard rock |
1478 |
1483 |
5 |
95. |
Hard rock |
1483 |
1502 |
19 |
96. |
Sand, rock fossils |
1502 |
1503 |
1 |
97. |
Blue rock |
1503 |
1506 |
3 |
98. |
Sand, lime, and blue rock |
1506 |
1510 |
4 |
99. |
Hard blue rock |
1510 |
1514 |
4 |
100. |
Blue and gray rock |
1514 |
1520 |
6 |
101. |
Hard gray rock |
1520 |
1523 |
3 |
102. |
Very hard gray rock |
1523 |
1525 |
2 |
103. |
Hard gray rock |
1525 |
1538 |
13 |
104. |
Blue and gray sand rock |
1538 |
1546 |
8 |
105. |
Blue sandy and slaty rock |
1546 |
1551 |
5 |
106. |
Blue sandy rock |
1551 |
1554 |
3 |
107. |
Hard gray rock |
1554 |
1555 |
1 |
108. |
Gray and blue hard rock |
1555 |
1558 |
3 |
109. |
Hard gray rock |
1558 |
1560 |
2 |
110. |
Hard gray and blue rock |
1560 |
1563 |
3 |
111. |
Very hard gray rock |
1563 |
1575 |
12 |
112. |
Very hard gray flinty rock |
1575 |
1579 |
4 |
113. |
Gray, blue, and yellow rock |
1579 |
1581 |
2 |
114. |
Hard blue rock |
1581 |
1595 |
14 |
115. |
Gray and blue rock |
1595 |
1599 |
4 |
116. |
Blue rock |
1599 |
1600 |
1 |
117. |
Hard gray rock |
1600 |
1619 |
19 |
118. |
Gray and blue rock |
1619 |
1631 |
12 |
119. |
Hard blue rock |
1631 |
1639 |
8 |
120. |
Hard blue and gray rock |
1639 |
1645 |
6 |
121. |
Hard gray rock |
1645 |
1651 |
6 |
122. |
Very hard gray rock |
1651 |
1655 |
4 |
123. |
Hard gray rock |
1655 |
1668 |
13 |
124. |
Blue and gray rock |
1668 |
1676 |
8 |
125. |
Hard blue rock |
1676 |
1688 |
12 |
126. |
Gray and blue rock |
1688 |
1703 |
15 |
127. |
Very hard flinty blue rock |
1703 |
1704 |
1 |
128. |
Very hard sand rock above and then very hard sand and flint rock.
Very rough. Rock seemed to have a
split in it |
1704 |
1705 |
1 |
129. |
Gray rock. (Mr. W. E. Wrather, who examined this piece
of core, describes it as a rough grained, hard, cemented sand rock). |
1705 |
1707 |
2 |
|
|
130. |
Hard blue and gray rock |
1707 |
1730 |
23 |
131. |
Very hard blue flinty rock |
1730 |
1738 |
8 |
132. |
Hard blue rock |
1738 |
1741 |
3 |
133. |
Hard blue and gray rock |
1741 |
1780 |
39 |
134. |
Hard flinty rock |
1780 |
1783 |
3 |
135. |
Hard gray and blue rock |
1783 |
1794 |
11 |
136. |
Hard blue rock |
1794 |
1799 |
5 |
137. |
Hard blue and gray rock |
1799 |
1803 |
4 |
138. |
Hard gray rock, quit in very hard sand
rock |
1803 |
1805 |
2 |
139. |
Very hard sand rock. Had split in it. Very
rough. |
1805 |
1806 |
1 |
140. |
Upper six inches very hard sandy, flinty rock,
rough, had crack in it. Lower two and a half feet was very hard
blue flinty sand rock
|
1806 |
1809 |
3 |
141. |
Very hard blue sand rock |
1809 |
1810 |
1 |
142. |
Hard blue rock |
1810 |
1816 |
6 |
143. |
Hard gray and blue rock. Quit in flint at 1823 |
1816 |
1823 |
7 |
144. |
Very hard sand and flint rock |
1823 |
1824 |
1 |
145. |
Hard sand and flint |
1824 |
1825 |
1 |
146. |
Blue rock |
1825 |
1826 |
1 |
147. |
Hard flint rock |
1826 |
1827 |
1 |
148. |
Hard sand and flint rock in the upper six inches, then flint sand and blue
rock |
1827 |
1830 |
3 |
149. |
Blue rock with flint at bottom |
1830 |
1838 |
8 |
150. |
Flint and blue rock |
1838 |
1845 |
7 |
151. |
Gray and blue rock |
1845 |
1851 |
6 |
152. |
Hard blue rock with streaks of flint |
1851 |
1855 |
4 |
153. |
Gray and blue rock |
1855 |
1860 |
5 |
154. |
Hard gray sand and flint |
1860 |
1862 |
2 |
155. |
Very hard sand and flint and very rough sand and
flint |
1862 |
1863 |
1 |
156. |
Flint and sand a few inches, then blue
rock |
1863 |
1864 |
1 |
157. |
Blue rock |
1864 |
1874 |
10 |
158. |
Hard blue rock and flint rock |
1874 |
1877 |
3 |
159. |
Blue rock with sand and very hard flint rock at
bottom |
1877 |
1884 |
7 |
160. |
Hard blue rock |
1884 |
1898 |
14 |
161. |
Gray and blue rock. Some sand in it |
1898 |
1910 |
12 |
162. |
Blue rock, not very hard |
1910 |
1936 |
26 |
163. |
Hard gray rock |
1936 |
1938 |
2 |
164. |
Very hard blue rock |
1938 |
1952 |
14 |
165. |
Flint and blue rock |
1952 |
1955 |
3 |
166. |
Blue rock |
1955 |
1964 |
9 |
167. |
Hard blue rock |
1964 |
1969 |
5 |
168. |
Blue and gray rock |
1969 |
1975 |
6 |
169. |
Hard gray and blue rock; 3 feet gray above 2 feet blue
below |
1975 |
1980 |
5 |
170. |
Hard gray and blue rock, gray rock and flint, and sand
rock |
1980 |
1988 |
8 |
171. |
Very hard sand and blue rock |
1988 |
1992
|
4
|
172. |
Very hard blue and gray rock |
1992
|
2000
|
8 |
173. |
Grayish blue and gray rock, with flint below |
2000
|
2007 |
7 |
174. |
Very hard flint and sand rock |
2007 |
2008 |
1
|
175. |
Flint and blue rock, very hard |
2008 |
2011 |
3 |
176. |
Very hard blue rock |
2011 |
2014 |
3 |
177. |
Gray and blue rock |
2014 |
2027
|
13 |
178. |
Hard gray rock with streaks of blue
|
2027
|
2032
|
5 |
179. |
Hard blue rock with flint in lower part
|
2032
|
2036
|
4 |
180. |
Hard blue rock with streaks of flint
|
2036
|
2041
|
5 |
181. |
Hard blue rock |
2041 |
2042 |
1 |
182. |
Blue shale |
2042 |
2047 |
5 |
183. |
Soft red sand rock, water |
2047 |
2049 |
2 |
184. |
Blue and gray rock |
2049 |
2050 |
1 |
185. |
Hard gray and blue rock |
2050 |
2059 |
9 |
186. |
Very hard blue rock |
2059 |
2063 |
4 |
187. |
Flint |
2063 |
2064 |
1 |
188. |
Blue and gray rock |
2064 |
2068
|
4 |
189. |
Soft red sand rock, hard in streaks |
2068 |
2107 |
39 |
190. |
Red sand rock and hard gray lime
rock |
2107 |
2115 |
8 |
191. |
Very hard gray limestone, almost
flint |
2115 |
2126 |
11 |
192. |
Blue rock |
2126 |
2128 |
2 |
193. |
Gray, blue, and red sand rock |
2128 |
2131 |
3 |
194. |
Hard red sand rock |
2131 |
2162 |
31 |
195. |
Red sand rock, not very hard |
2162 |
2176 |
14 |
196. |
Hard red sand rock |
2176 |
2204
|
28 |
197. |
Very hard sand rock |
2204
|
2209
|
5 |
198. |
Very hard red sand rock |
2209 |
2211 |
2 |
199. |
Hard blue lime and flint rock |
2211 |
2214 |
3 |
200. |
Very hard flint rock (three days’
drilling) |
2214 |
2216 |
2 |
201. |
Very hard sand and flint rock (three
days) |
2216 |
2219 |
3 |
202. |
Blue limestone |
2219 |
2223 |
4 |
203. |
Very hard flint and limestone |
2223 |
2224 |
1 |
204. |
Very hard limestone |
2224 |
2226 |
2 |
205. |
Very hard blue limestone and flint |
2226 |
2236 |
10 |
206. |
Very hard limestone and flint |
2236 |
2239 |
3 |
207. |
Very hard blue limestone and flint |
2239 |
2240 |
1 |
208. |
Very hard sand and flint rock |
2240 |
2242 |
2 |
209. |
Very hard sand rock |
2242 |
2243 |
1 |
210. |
Very hard sand and flint rock |
2243 |
2244 |
1 |
211. |
Sand and flint rock (core) |
2244 |
2250 |
6 |
212. |
Very hard sandstone (core), much pyrite near this depth reported by Minihan |
2250 |
2270 |
20 |
213. |
Hard blue lime rock (core) |
2270 |
2274 |
4 |
214. |
Blue limestone |
2274 |
2276 |
2 |
215. |
Red sandstone |
2276 |
2278 |
2 |
216. |
Hard lime rock |
2278 |
2281 |
3 |
217. |
Very hard lime rock |
2281 |
2287 |
6 |
218. |
Very hard limestone and flint |
2287 |
2291 |
4 |
219. |
Very bard blue lime rock |
2291 |
2296 |
5 |
220. |
Very hard lime rock |
2296 |
2298 |
2 |
221. |
Very hard lime rock and flint |
2298 |
2300 |
2 |
222. |
Hard lime and flint rock (six days’ drilling) |
2300 |
2307 |
7 |
223. |
Very hard limestone and flint rock |
2307 |
2312 |
5 |
224. |
Very hard blue lime rock |
2312 |
2322 |
10 |
225. |
Hard blue lime rock |
2322 |
2329 |
7 |
226. |
Red sand rock |
2329 |
2331 |
2 |
227. |
Hard blue lime rock |
2331 |
2333 |
2 |
228. |
Very hard blue lime rock |
2333 |
2343 |
10 |
229. |
Very hard blue lime rock, almost flint |
2343 |
2348 |
5 |
230. |
Hard limestone |
2348 |
2362 |
14 |
231. |
Hard blue limestone |
2362 |
2381 |
19 |
232. |
Blue limestone |
2381 |
2383 |
2 |
233. |
Hard limestone |
2383 |
2392 |
9 |
234. |
Red sand rock and limestone |
2392 |
2395 |
3 |
235. |
Blue limestone |
2395 |
2396 |
1 |
236. |
Red sandstone and blue limestone |
2396 |
2401
|
5 |
237. |
Blue limestone |
2401 |
2413 |
12 |
238. |
Very hard limestone |
2413 |
2416 |
3 |
239. |
Blue limestone |
2416 |
2429 |
13 |
240. |
Hard limestone |
2429 |
2442 |
13 |
241. |
Blue limestone |
2442 |
2450 |
8 |
242. |
Lime and red sand rock |
2450 |
2466 |
16 |
243. |
Hard blue sand rock |
2466 |
2472
|
6 |
244. |
Blue sandstone and limestone |
2472 |
2480 |
8 |
245. |
Limestone |
2480 |
2487 |
7 |
246. |
Blue limestone |
2487 |
2535 |
48 |
247. |
Red sandstone and limestone |
2535 |
2551
|
10 |
248. |
Limestone |
2551 |
2560 |
9 |
249. |
Blue limestone |
2560 |
2599 |
39 |
250. |
Lime and red sandstone |
2599 |
2612 |
13 |
251. |
Blue limestone |
2612 |
2622 |
10 |
252. |
Lime and blue sandstone |
2622 |
2640
|
18 |
253. |
Blue sand and red sand rock |
2640
|
2653
|
13 |
254. |
Red sand and lime rock |
2653 |
2664 |
11 |
255. |
Soft red sand rock |
2664 |
2673 |
9 |
256. |
Blue limestone |
2673 |
2677 |
4 |
257. |
Blue shale |
2677 |
9682 |
5 |
258. |
Limestone |
2682 |
2685 |
3 |
259. |
Blue sand rock, very hard |
2685 |
2694 |
9 |
260. |
Blue sand rock |
2694 |
2701 |
7 |
261. |
Lime and brown sand rock |
2701 |
2716 |
15 |
262. |
Hard brown sand rock |
2716 |
2735 |
19 |
263. |
Brown sand rock |
2735 |
2744
|
9 |
264. |
Soft gray sand rock, hard streaks |
2744
|
2751 |
7 |
265. |
Brown sand rock, hard |
2751
|
2802
|
51 |
266. |
Brown sand rock |
2802
|
2969,
|
167 |
267. |
Hard brown sand rock |
2969 |
2975 |
6 |
268. |
Very hard brown sand rock and flint |
2975 |
2980 |
5 |
269. |
Anhydrite, water seep |
2980 |
2995 |
15 |
270. |
Limestone |
2995 |
3045 |
50 |
271. |
Anhydrite |
3045 |
3046 |
1 |
272. |
Limestone |
3046 |
3060 |
14 |
273. |
Hard blue shale with streaks of lime |
3060 |
3075 |
15 |
274. |
Streaks of anhydrite and hard limestone |
3075 |
3125 |
50 |
275. |
Limestone, hard |
3125 |
3141 |
16 |
276. |
Limestone |
3141 |
3180 |
39 |
277. |
Brown limestone |
3180 |
3185 |
5 |
278. |
Limestone |
3185 |
3200 |
15 |
279. |
Limestone and anhydrite |
3200 |
3205 |
5 |
280. |
Limestone |
3205 |
3210 |
5 |
281. |
Limestone, very hard |
3210 |
3215 |
5 |
282. |
Limestone |
3215 |
3240 |
25 |
283. |
Limestone and anbydrite |
3240 |
3245 |
5 |
284. |
Limestone |
3245 |
3255 |
10 |
285. |
Brown limestone |
3255 |
3260 |
5 |
286. |
Limestone |
3260 |
3280 |
20 |
287. |
Brown limestone |
3280 |
3290 |
10 |
288. |
Limestone |
3290 |
3320 |
30 |
289. |
Limestone |
3320 |
3340 |
20 |
290. |
Brown limestone |
3340 |
3345 |
5 |
291. |
Limestone |
3345 |
3350 |
5 |
292. |
Brown limestone |
3350 |
3355 |
5 |
293. |
Limestone |
3355 |
3363 |
8 |
294. |
Very hard brown rock |
3363 |
3371 |
8 |
295. |
Limestone |
3371 |
3512 |
141 |
296. |
Very hard limestone |
3512 |
3521 |
9 |
297. |
Very hard brown limestone |
3521 |
3540 |
19 |
298. |
Limestone |
3540 |
3667 |
127 |
299. |
Blue shale |
3667 |
3669 |
2 |
300. |
Limestone |
3669 |
3752 |
83 |
301. |
Very flinty limestone |
3752 |
3763 |
11 |
302. |
Hard limestone |
3763 |
3791 |
28 |
303. |
Limestone |
3791 |
3842 |
51. |
|
304. |
Brown and hard limestone |
3842 |
3850 |
8 |
305. |
Very hard limestone |
3850 |
3858 |
8 |
306. |
Limestone |
3858 |
3926 |
68 |
307. |
Hard limestone and some pyrite |
392(3 |
3932 |
6 |
308. |
Limestone with a great deal of pyrite |
3932 |
3947 |
15 |
309. |
Very hard limestone and
pyrite |
3947 |
3952 |
5 |
310. |
Limestone |
3952 |
3964 |
12 |
311. |
Brown limestone with pyrite |
3964 |
3975 |
11 |
312. |
Limestone |
3975 |
3986 |
11 |
313. |
Limestone with pyrite |
3986 |
3994 |
8 |
314. |
Limestone |
3994 |
4090 |
26 |
315. |
Hard limestone |
4020 |
4045 |
25 |
316. |
Limestone |
4045 |
4075 |
30 |
317. |
Very hard limestone |
4075 |
4076 |
1 |
318. |
Limestone and anhydrite |
4076 |
4088 |
12 |
319. |
Gray limestone |
4088 |
4152 |
64 |
320. |
Very hard limestone |
4152 |
4168 |
16 |
321. |
Limestone |
4168 |
4215 |
47 |
322. |
Hard limestone |
4215 |
4278 |
3 |
323. |
Limestone |
4218 |
4263 |
45 |
324. |
Brown limestone |
4263 |
4278 |
15 |
325. |
Limestone |
4278 |
4288 |
10 |
326. |
Gray limestone |
4988 |
4305 |
17 |
327. |
Limestone |
4305 |
4325 |
20 |
328. |
Very hard limestone |
4325 |
4332 |
7 |
329. |
Hard limestone |
4332 |
4350 |
18 |
330. |
Limestone |
4>50 |
1389 |
39 |
331. |
Limestone and shale |
4389 |
4`398 |
8 |
332. |
Limestone, streaks, (lark shale |
4398 |
4407 |
9 |
333. |
Dark shale and limestone |
1407 |
4431 |
2 f |
334. |
Dark shale with streaks of limestone |
4 31 |
a 170 |
39 |
335. |
Limestone and dark shale |
4470 |
4475 |
5 |
336. |
Limestone |
4475 |
4479 |
4 |
337. |
Limestone and shale |
4479 |
4489 |
10 |
|
|
These carefully compiled drill data show that there were 337 strata
in 4,489 feet an average of thirteen feet per stratum. Some of the
lesser thicknesses especially where they occur in sequence may
represent time periods of only fractions of epochs.
Some of the
greater thicknesses may have resulted from drilling through slanting
strata. These two different conditions may average out; but it is an
assumption that can be corrected when better data become available.
On this assumption we will base our estimate of the age of the earth
and the age of the oldest rocks that have been sampled.
Material |
Level |
Thickness |
Rock and gravel |
20-70 |
50 feet |
Red rock (shale) |
70-115 |
45 feet |
Hard white sandstone |
125-195 |
70 feet |
Blue shale |
195 -220 |
25 feet |
Blue shale (lighter color) |
220 -270 |
50 feet |
Soft white sandstone |
270 -280 |
10 feet |
Blue shale |
280 -400 |
120 feet |
Red rock (shale) |
400 -115 |
15 feet |
Blue shale |
415 -445 |
30 feet |
Red rock (blood red) |
445 -465 |
20 feet |
Red sandstone |
815 -870 |
55 feet |
White sandstone |
870 - 930 |
60 feet |
Red sandstone |
930 -1190 |
160 feet |
White sandstone |
1190 -1193 |
3 feet |
White material (like lime) |
1193 -1197 |
4 feet |
Blood red material |
1197 -1210 |
13 feet |
Granite |
1210 -1213 |
3 feet
|
|
The nature of the earth conditions underlying a section of the
Rocky
Mountains, is indicated by the record of the drilling of a water
well, furnished by Mr. N. W. Draper and taken from Colorado
Geological Survey, Bulletin 28, 1925.
The well is located 1 1/2
miles south of Grand junction, in west central Colorado, just west
of the Continental Divide.
As an example of the earth conditions that lie under a section of
the Appalachian Mountains, I reprint here a part of the report of a
typical boring, taken from West Virginia Geological Survey, County
Reports, 1921, Nicholas County: The log of the 20,521 feet deep well
drilling by the Superior Oil Company, in Sublette County, Wyoming
setting a record for depth up to 1950 shows for the last two miles
"Alternating sandstones and gray shale with sandy shale and shaley
sand to total depth. "
The presence of successive repetitive earth strata is indicated by
the records of drilling and borings for oil, minerals, and water,
and also by mine shafts, in all parts of the world. Practically all
the records show that the borings have encountered sedimentary
formations in layer after layer.
These records confirm the fact that the globe was built up stratum
by stratum, under conditions which were changing constantly for any
one area, thus confirming the repetitive careenings of the globe.
Materials |
Thickness in feet
|
Total feet |
Slate and lime shells |
25 |
905 |
Lime, hard, gray |
25 |
930 |
Sand, white, Rosedale salt |
120 |
1,050 |
Slate & lime shells |
65 |
1,115 |
Sand |
5 |
1,120 |
Lime, black |
30 |
1,150 |
Sand, gray |
40 |
1,190 |
Slate and lime shells |
10 |
1,200 |
Red rock |
25 |
1,225 |
Slate and shells |
20 |
1,245 |
Lime, gray |
50 |
1,295 |
Red rock |
47 |
1,342 |
Slate and lime shells |
43 |
1,385 |
Red rock |
35
|
1,420 |
|
|
|
Drill logs also disclose that there is an apparent tendency for the
globe to repeat its careenings, for a time, over almost the same
reel and re reel, as disclosed by the recurrence of identical
materials in its alternate layers.
These facts support the evidence found in Nova Scotia, referred to
above, which contain ten layers of fossil trees with eleven layers
of barren rock between and above and below and which indicate that
the globe careened back and forth within a certain definite pattern
or cycle during those epochs.
The records also support our deductions based on the 27 layers of
fossil trees in Yellowstone Park, the nineteen layers of coal in
Nova Scotia, at the Bay of Fundy, and the successive earth strata
with fossil trees reported at frozen Wood Hill in the New Siberian
Islands.
Similarly, many coal beds occur one above the other, often with
frigid zone materials separating by very sharp cleavage planes quite
a number of the strata and then above and below there are materials
which are the accumulations of entirely different conditions of
latitude and environment.
Magnetic Rocks
TELLTALE magnetic rocks found in North America and Europe show that
in previous epochs, between the recurrent careenings of the globe,
they were magnetized in directions different from that in which the
earth’s electric currents are now magnetizing similar rocks.
Earth electric currents are today magnetizing various types of rocks
so that they will point north south when freely suspended. They are
composed of magnetic iron oxide, or magnetite, and have been called
natural magnets. They are believed to have been the first compasses
used by man.
The angular direction of the magnetic pointings of many of these old
rocks are now randomly oriented to the present polar indicating that
in former epochs the North and South Magnetic Poles occupied
entirely different positions on the surface of the globe than they
do now.
Some of the nonconventionally pointing magnetic rocks are found to
be slanted obliquely toward the present ground surfaces, indicating
that there have been geological disturbances since they were formed
and magnetized in horizontal layers.
Page 86
Thirteen locations of nonconventionally pointing magnetic rocks have
been tabulated by S. K. Runcorn in Nature Magazine, September 3,
1955, page 425. lie classified rocks of eight geological eras from
Pre Cambrian to Triassic occurring in Great Britain, North America,
and other countries.
John V. Graham, in Journal of Geophysical Research of September,
1955, page 327, states that "Enough observations have been made so
that there is no longer any question that a useful fraction of old
rocks retain to this day the magnetisms they received in remote
times."
The most logical explanation for the telltale randomly oriented
magnetic rock materials is the recurrent careenings of the globe.
The variation in directional pointings of magnetic rocks in old
formations is a corollary and proof of the frequent shiftings of the
earth’s Axis of Figure caused by the careenings of the globe. Earth
electric currents are discussed more fully under "Volcanoes and Hot
Springs" (page 236) , in Part III "Origin of the Earth’s Materials."
Minerals
CHARACTERISTIC formations or manner of occurrence in nature of
certain minerals, such as coal, oil, salt, gold, fit naturally and
perfectly into the pattern of the theory of the recurrent careenings
of the globe.
Nothing but such careenings explain the locations and
forms of these minerals.
COAL
Coal is found in all parts of the world, including the antarctic continent, the arctic islands, Greenland, Alaska, and in
all of the temperate and tropical zones. It is being mined under the
bed of the Pacific Ocean at Lota, Chile, and under the Atlantic
Ocean off England, Nova Scotia, and elsewhere. It is mined in the
Rocky Mountains, in the Appalachian Mountains, in the Urals and many
other mountains.
The coal beds found in polar regions are the
results of vegetable growths which accumulated when those areas
enjoyed temperate or tropical climates. Layers of coal were formed
from masses of vegetation, consisting of leaves, sticks, and trees,
which had become water logged and then sank to the bottom of
depressions in the land such as swamps, lakes, and rivers just as
vegetable mucks accumulate at similar locations in our own time.
This process resulted in the accumulation during the entire epoch of
a bottom layer of vegetable matter, with some mineral contents. All
other detached vegetation was exposed to the air and was slowly
burned up by oxidation, just as is happening all around us today.
Vegetable muck deposits, which are now found as coal, have been
protected from oxidation, i.e. slow combustion, by being covered
with superimposed layers of earth materials. The churning up and
dispersal of huge volumes of earth materials by the great deluges
which accompany each careening of the globe, create the layered
condition now existing in the structure of the earth.
The coal fields of Pennsylvania show five at some places seven
horizontal layers of coal with layers of shale or slate interleaved
between the coal beds. This evidence indicates that these areas were
alternately warm or tropical, at which time the vegetable muck which
later became coal was gathered, and then polar, when the silt
collected, being carried by water and also forming beds at the
bottom of depressions.
The vegetable muck was shifted to a polar climate by a careen of the
globe and, being covered with water which immediately froze solid,
was protected from slow combustion while in the polar region.
Into
certain of these muck bottomed depressions there flowed, during the
summer, waters containing silt which settled down to form an
additional protective covering for the muck. The layer of silt also
prevented oxidation when the muck was again careened back to a
temperate or tropical zone. The silt eventually became shale or
slate.
Having explained the process through which vegetable mucks turn to
coal and glacial silts become clay, shale and slate, we notice that
there are features common to both formations, and also features
peculiar to each. A common feature is that both coal and silts
require a depression in the land, because they both form on lake
bottoms, etc., from materials which once floated and then sank in
these waters.
The features peculiar to each are:
(1) coal represents warm climate
ingredients which fell into the waters and sank;
(2) clay silts
represent polar ingredients which were carried by the waters in
summer and sank to the bottom, forming a layer above the muck.
Such a series of superimposed alternate layers of coal and slate
indicate that the particular area once was a basin of depressed land
created by one of the ancient ice caps once existing in that
location.
Thirty coal beds have been found in Pennsylvania and 63 in Nova
Scotia in vertical earth strata indicating possibly as many separate
and distant epochs during which these lands were in latitudes and
climates suitable to the development and accumulation of the
vegetable mucks from which coal is usually formed.
There is always the possibility that a basic coal stratum, laid down
in any one epoch, may be found to be divided into seams, separated
by interleaved strata and caused by nothing but local disturbances;
but there is general agreement that each layer of coal buried in the
bowels of the earth was once vegetable materials growing upon the
earth’s surface.
Coal is a product of the land; but oil, salt, and gold appear to be
products of the sea. All have been created during successive epochs.
The geographical areas in which the greatest supplies are located
have been determined by the careenings of the globe. They are all
telltale evidence of such careenings.
Starting with the theory of global careenings to explain the
perfectly preserved conditions of mammoths, I looked elsewhere in an
endeavor to find supporting evidence.
Studying the formations
containing various minerals I found that coal, oil, salt, and
supplies are located have been determined by the careenings of but I
discovered no adequate explanation for these materials being located
in earth strata at varying depths.
OIL
I have come across seven different theories to explain the
formation of petroleum or oil in the strata of the earth; and only
one of them seems to be able to stand the acid test of factual
evidence.
That theory holds that oil comes from fish. The theory of
fish being the origin of oil is ably and adequately expounded in the
literature on the subject; but, in all these treatises there has
been a "missing link." A cataclysm was required to kill fish in such
enormous quantities, and means for preserving them from decay and
oxidation immediately after death were also necessary. That link is
now adequately supplied by the theory of recurrent global careenings.
The most widely held theory today is that oil principally has been
produced by animalculae; but if that theory is correct, we could
expect to find oil widely distributed and not concentrated in
certain locations. The theory that oil comes mainly from the fish in
the seas of ancient times accounts for its being present in certain
localities.
Animal life in the sea is estimated to be immensely greater in total
numbers than life on the land, for the sea covers approximately 71
per cent of the surface of the globe and supports life for miles
below the surface whereas animal life on land is confined to a
single restricted surface. A small part of the great abundance of
marine life has been trapped and converted to oil at the time of
each recurrent careening of the globe.
Fishes’ graveyards, containing their skeletons abound in successive
rock strata the world over, in rocks belonging to all of the various
systems of formation. The fish skeletons are found in closely packed
layers, in an astonishing variety of different sizes and numbers.
Estimates have been made to the effect that the beds must have been
many thousands of square miles in extent.
The Old Red Sandstone
found in all parts of the world has been referred to as belonging to
the "Age of Fishes," because the remains of whole shoals of fish are
found in it almost everywhere.
A hundred years ago Hugh Miller studied the massed fish graveyards
in the Old Red Sandstones of Scotland and concluded that the fish
must have remained undisturbed in quiet waters following their
death. He reached that conclusion without knowing anything about the careenings of the globe, which produce just those conditions. (The
Old Red Sandstones, published in 1858.)
Massed skeletons of river bullheads have been found in profusion,
with their two spines at nearly right angles to the plates of the
head, this being a sign that they died of asphyxiation like the
mammoth mentioned on page 20.
Masses of fish skeletons with fins
spread to the full, not relaxed as in a quiet death, are common; and
certain individual specimens have been preserved with traces of
color on their skin showing that they were entombed before
decomposition of the softer parts had taken place.
Like coal, oils are found in all geological formations, from the
earliest to the latest. Oils are derived from a number of sources
from fish, whales, and other animals, from trees, shrubs, and
plants. Commercial oils are manufactured from menhaden or silver
herring. Fish are the main source of the mineral oils of the earth;
this is shown to be so by an outline of the theory of why and how
fish changed into oil.
Consider what happens when a body of water the
size of Lake Superior is careened to a polar area and its waters freeze solid; or, if a
section of the ocean becomes landlocked in a polar area after a
careen of the globe.
The waters immediately become covered with ice. All kinds of fish,
by the thousands, are alive and swim about in the water.
This is the
sequence of events which follows:
-
The body of water becomes hermetically sealed by the ice cover and
the oxygen in the air is prevented from being absorbed by the water;
-
The usual percentage of oxygen present in the water is exhausted by
the demands of the organic life;
-
The fish all die of suffocation, and they sink to the bottom;
-
The dead fish do not float to the surface, since the lack of oxygen
and the coldness of the water prevent the creation of gases of
decomposition;
-
The water itself turns to ice leaving a residue of its mineral salts
and silt as a layer covering the dead fish.
When the masses of dead fish, from former epochs of time, were again
returned to a warm climate by the next careen of the earth, the
depressions in which they rested continued to be bottoms of lakes;
they remained filled with water which gathered more silt while the
frozen fish were thawing out.
The cell structure of the fish had
been expanded and disrupted by freezing, just like the cell
structure of an apple is disrupted by frigid temperatures. When
thawed out, and subjected to pressures by the overlying strata, the
hydrocarbons oil readily separated out.
At the bottom of this new lake a layer of muck, dirt, and silt
gradually formed, and removed the fish remains one layer farther
from the surface of the earth. The oils could not float to the
surface because they were underneath a covering layer of residual
mineral salts and a layer of silt. The oils, therefore, oozed still
farther downward through the earth strata above which they had been
formed until stopped by a rock obstruction. Today oils are being
found in saturated reservoir rocks and sands just above or below
geological obstructions by which they have been trapped.
When oils are found below such obstructions and gush on being
tapped, or when they ooze from the ground, such oil motion is
reasonably explained as due to changes in local, internal earth
pressures and centrifugal forces, these being natural consequences
of changes in the location of the earth’s Axis of Figure.
For a long time many geologists thought that oil could only be found
in "domes." These were searched for underground. Then, oil was
discovered in buried and forgotten shore lines of underground seas.
Geological horizons of ancient sea bottoms are, at sporadic
locations, fish graveyards, and oil has been found in abundance in
ancient underground coral reefs.
J. J. Newberry has described fossil fish of all sizes found in
Pennsylvania and in surrounding states. See The Paleozoic Fishes of
North America, in U.S. Geological Survey Monograph No. 16, 1889.)
Naturally, oil has been found in some of the same locations.
The worldwide distribution of underground oil like coal, salt, and
gold confirms the theory of the recurrent careenings of the globe
and the build up of its various strata, epoch by epoch.
SALT
The great underground deposits of soluble mineral salts, found
in many strata under the surface of the earth, can be rationally
accounted for by the theory that they are located in what was once
the bottom of a depression in the land which was filled with sea
water when a flood inundated the land; or their location marks the
bottom of a salt sea of long ago which became landlocked because of
the earth’s careening, its waters having evaporated or frozen to ice
leaving salts as a residue.
The bottoms of salt beds are lens shaped. Their cross sections are
like those of lakes, and this shows that they were lake or sea
bottoms at the time the salt residues were accumulated.
In central New York State seven successive salt beds have been
discovered, and in the southwest there are thirty or more separate
beds of salt, all derived from the evaporation of sea water, as
pointed out by Charles M. Riley in Our Mineral Resources, page 259.
He states that layers of gypsum underlie the rocksalt in mines; he
also stresses the fact that gypsum precipitates from sea water after
37 per cent of the water has evaporated, but common salt does not
precipitate (crystallize) until over 93 per cent of the sea water
has evaporated.
The result of this fractional precipitation is that
layers of gypsum arc laid clown before the salt layers.
GOLD
Having seen how fish change into oil when a landlocked section
of the ocean or a lake turns into ice, and how salt becomes a
residue from evaporation or freezing, we will take a close look at
the gold that was present in those same sea waters.
Gold together with most of the common elements of the earth is found
in the oceans. The Encyclopaedia Britannica states that gold is
present in minute quantities in most rocks and is widely
disseminated in igneous rocks, of which, however, it makes up an
extremely small percentage. Gold exists every where in rocks, in
sands, and gravels.
There are important gold fields in every
continent. A rich deposit was found in a bed of lignite in Japan and
another in the Cambrian coal fields of Wyoming. Most of the gold
crystals in ores and rocks are too small to be seen; but in
California there are larger crystals, of the cubic system, an inch
or more across.
The gold in the ocean was left behind, like the fish and the salt,
when the landlocked seas froze or evaporated and thus abandoned the
areas in which they had been trapped.
Apparently the gold
crystallized out just as the salt did, and many of the larger
crystals occur in lodes; these have been attributed to the
concentration of the residual liquid before its final disappearance.
The distorted, rounded forms of many of the larger crystals are due
to the pressure and movement of temporary, overlying glacial ice;
while the wide diffusion of gold in rocks throughout the world
attests to the frequency of the rollarounds of the globe and
indicate the great number of locations in which the gold of ocean
waters has been left behind as a residue.
For example, gold in South
Africa is found in "reefs", which have been developed on a rock
stratum which was originally horizontal, but is now tilted. Mine
shafts that start at the surface outcroppings follow the downward
sloping strata, or synclines, to depths of two miles.
The Ocean
OCEAN FLOOR
The floor of the ocean may be likened to mountains,
hills, ravines, gorges, plains, and river beds.
These areas happen
to be submerged in our present epoch, but their topography is not
essentially different from the land areas now rising above sea
level. The fact that these conditions exist is ample proof that
there was a time when they were dry land.
There were also times when the world’s present land areas were below
sea level; in that era originated the marine fossils now in evidence
as well as the strata of limestone rocks which were first created in
the ocean by the shells of countless shell fish and corals. These
rocks provide positive proof that these areas were formerly under
water.
The ocean floor and the beaches of former epochs consisted of
sedimentary layers of sand, shells, corals, etc.; they were later
metamorphosed into sandstones and limestones many of which are found
today as rock in the mountains, while countless others form sections
of the earth’s upper strata.
What was at one time the floor of the ocean may today be a mountain
top. Ovid (born in 43 B.C.), in Metamorphoses, Book XV, tells of an
ancient anchor found on the very summit of a mountain, and of marine
shells lying dead far from the ocean.
Explorers have been puzzled by finding sea shells and other
specimens of marine life high up in the Rocky Mountains, in the
Appalachian, the Andes, the Himalayas, and other mountain ranges.
The location of these marine specimens is readily accounted for by
the successive Great Deluges of the earth; during each Great Deluge
huge quantities of sea shells and marine specimens were churned up
as debris, held in suspension by the rushing flood waters, and then
widely scattered over the mountains, plains, and valleys comprising
the land areas.
Two enigmas, which have long baffled scientists, resolve themselves
automatically in the minds of those who accept the theory of the
recurrent careenings of the globe. These two riddles have to do with
the Land and Water Hemispheres and with the Rifts.
LAND AND WATER HEMISPHERES
Our globe may be divided into a Land
Hemisphere, containing approximately 46.6 per cent land and the rest
water; and a Water Hemisphere, having only approximately 11.6 per
cent land.
This geographical fact confirms that the Sudan Basin area
of Africa was at the North Pole during Epoch No. 1 B.P. It was there
that the polar ice cap of that epoch grew to maturity and created
the Sudan Basin.
When the eccentric throw of the rotating weight of the Sudan Basin
Ice Cap rolled the earth around until the basin reached its present
latitude, the earth careened about 80 and ended Epoch No. 1 B.P.
The city of London is located at the approximate center of the Land
Hemisphere; it lies approximately halfway between the North Pole and
Lake Chad, and nearly on the line of the ice Cap’s travel.
The existence of a Land Hemisphere is explained by the enormous
weight and rotating speed and corresponding eccentric centrifugal
force of the migrating Sudan Basin Ice Cap. The Ice Cap traveled
with a varying rate of speed as it left the Pole of Spin and
journeyed toward the tropics; its speed was that of the earth’s
surface strata for each latitude plus the additional speed generated
by the careening motion of the globe’s surface.
Neither the speed of careening nor the speed of the earth’s rotation
affected the Sudan Basin Ice Cap when it was at the North Pole. Then
it moved only at the slow speed of the wobbling motion of the earth
and at the speed created by the distance the Axis of Figure was off
center from the Axis of Spin.
The speed of careening soon became
excessively great, but decreased to practically zero when the Ice
Cap reached about 10 Northern latitude, while its speed of motion
due to the rotation of the globe became about 40 per cent faster
than the speed of sound, since it would then move at approximately
the speed of the earth’s surface at the Equator.
The eccentric centrifugal force created by the motion of the Ice Cap
at these great speeds caused the elevation of all the lands of which
it was a part. It pulled them upward and outward from the center of
the earth, against the force of gravity. At the same time most of
the land areas of the opposite hemisphere became submerged in the
oceans, and became a Water Hemisphere.
More than three quarters of the land surface of the globe is north
of the Equator. This is so because the three most recent ice caps
that have caused the globe to careen have been located at the North
Pole. It is therefore to be no more than expected that the northern
land areas are found to be elevated.
The present arrangement of the
land masses is evidence of the upward and outward throws of the
eccentric centrifugal force of the migrating ice caps of the past.
Rifts
THE UPWARD and outward pulls as well as stresses of the eccentric
centrifugal force of the Sudan Basin Ice Cap created during the ice
cap’s migration put certain tensions in the adjacent earth masses.
The great African Rift remains as mute telltale evidence of this.
The rock formations thus torn apart tell of the transient forces
created by the Ice Cap’s migration. It has long been known that
tremendous force and tension were required to form the crevasses in
the rocks, and that force is now clearly identified. We also
identify this rifted area as a section of the globe that was moved
from the North Pole to the tropics; it was at the same time moved
about thirteen miles further from the center of the earth.
The
radius of the earth being about 4,000 miles, the area had to be
stretched out about 13/4000 squared, more than it had been, for
surfaces of spheres are to each other as the squares of their
diameters.
The Great African Rift lies to the east of and parallel to the
direction of the Sudan Ice Cap’s line of travel. It extends both
north of and south of the Sudan Basin, ranging from Syria to south
central Africa, a distance of over 4,000 miles. Bailey Willis, in
Carnegie Institution of Washington Publication No. 470 (1936), has
collected many photographs of rift valleys. In many places the sides
are vertical, or nearly so, and are so bare and sharply cut as to
indicate the rift’s recent geological creation. Some of the rift
valleys have normal escarpments.
J. W. Gregory delineates and describes sections of the Great African
Rift Valley in his book The Rift Valley and Geology of East Africa.
Both of these authorities refer to other rifts known in many parts
of the world.
They describe the Rift Valley as being in some places,
a single chasm and sometimes being as wide as the Red Sea; in other
places it has been broken into a long, wide chain with numerous
chasms. The Rift Valley branches eastward to the mouth of the Gulf
of Aden and westward beyond Lake Tanganyika in the rift valley of
the central Congo region.
The Red Sea is not in a valley; no
important rivers flow into it. It appears to be a crack,
approximately 1,250 miles long, in the upper rock surface of the
earth, where the earth opened up, clue to transient tensions, and
stayed open.
The Dead Sea, near the northern end of the Great Rift, is 1,300 feet
deep and its surface is 1,293 feet below sea level the lowest land
surface on the earth. The Dead Sea and the River Jordan lie in a
narrow valley, so straight and deep that it has been described as a
crevasse in the earth’s so called crust. Similarly, Lake Tanganyika,
lying in what is one of the southern extensions of the Rift, is
4,190 feet deep and its bottom is 1,664 feet below sea level. The
Great Rift is indeed no local fracture, its length being one sixth
of the circumference of the earth.
There is much evidence to show that the rocks in the area have been
pulled apart. In many places parallel faults, extending north south,
are arranged like a grid, or like parallel fingers of long, thin
rock slices on end, separated by bays of alluvium.
If we look for evidences of earth tensions on the side opposite the
Rift, caused by the Sudan Basin Ice Cap reeling southward and
causing the land surfaces to stretch, we notice both the main fjords
at Oslo running north south and the English Channel. In the Channel
area we find that a great deposit of chalk has apparently been split
approximately down the middle, with one half in the cliffs of
Normandy facing the other half in the cliffs of Dover.
In view of the above facts, indicating that rifts were created by
the tensions resulting from the eccentric centrifugal forces of
rotation of polar ice caps in transition, we can confidently look
for other rifts caused by former polar ice caps, and we will find
them as fjords, chasms, and steep, walled valleys all over the
surface of the earth.
Polar Regions
EARLY explorers arrived in Antarctica with comparatively open minds
but did expect to find evidence to support the then current belief
that the ice mass was the waning remnant of a prehistoric ice age.
They discovered physical phenomena which they erroneously concluded
were proofs of the ice mass having been larger in former times.
Near the coasts they observed glacially transported boulders perched
1,000 to 1,500 feet above the flowing glaciers, and high up on the
sides of mountains they saw the scouring marks, striations made by
moving glaciers. They assumed that the Ice Cap must have been at
least 1,000 feet higher in former times, and their erroneous
conclusion that the Ice Cap was waning became current popular
belief.
It is possible that they observed the telltale markings of
an earlier ice age for Antarctica; as The Encyclopaedia Britannica
states,
"Raised beaches show an emergence of land in Quarternary
times and there is evidence of a recent glacial period when the ice
sheet on the Palmer Peninsula was 1,000 feet higher than it is now."
(Vol. 2, 1959, page 14) .
A more recent view holds that these phenomena more probably have
been caused by the natural workings of isostacy, the inland ice
pressures having caused the extrusion of coastal mountains.
The Ice
Cap, fed by copious snowfall and almost continuous fall of
hoarfrost, appears to be constantly growing in robust health, and
not waning.
Glaciers, past or present, never could pile up any
higher on the sea coasts than they do at present, because any
increase in weight makes them flow away faster into the oceans, and
the ice is constantly flowing off the land and into the sea.
Therefore, glaciers could not have deposited the 1,500 foot high
boulders on the coast nor have caused the scouring marks on the high
coastal mountains.
Some of the coastal rocks of yesterday have apparently become the
coastal mountains of today. They were spewed up to relieve the
tremendous pressures created on the rock floor of the inland ice
bowl. Greenland’s ring of coastal mountains and its depressed center
appears to be a similar example of the workings of isostacy.
Such rock upthrusts receive confirmation from the carcass of a
Weddell seal, found by Captain Scott high up in the twin Ferrar
Glacier, near the Ross Sea Coast. For a seal to have climbed so high
is, of course, absolutely impossible. For a seal to have been
reposing on rocks which were flung up to a higher
altitude can be explained in the same way as the finding of glacial
boulders perched high in the mountains.
Solid rock flows under pressure, but it cannot move downward.
Antarctica’s interior ice pressures are relieved at the coasts, the
rock being burst up into the coastal mountains. Thus added to, these
mountains serve to enlarge the area of the continent, and at the
same time, they block off or dam the flow of ice. This increases the
volume and weight of cold storage ice, which, in turn, acts to
produce new coastal mountains. This is the vicious circle of
Antarctica’s growth!
"Ice mountains" and "ice volcanoes" illustrate the vicious circle of
the continent’s growth. An ice mountain discovered along the Queen
Maud Land coast by the U.S. Navy’s 1946 47 expedition is described
by Admiral Byrd as "luminous blue, towering more than two miles high
and extending 100 miles along this coast." Others have described it
as rising sharply from the ocean depth. It now blocks off the flow
of the ice to the sea, increasing the weight of the Ice Cap.
"Luminous blue" signifies deep glacial ice. Placed in a glass of
water, it gives off air bubbles as the ice melts, the effervescence
being due to the air having been under pressure. Deep glacial ice,
now high up in a mountain, can only be accounted for by the theory
of underground rock movements and coastal upthrusts.
Ice volcanoes, or "ice bowls" which pockmark a large area of the Bellingshausen Sea coast are caused by sudden violent rock flows
resulting in pillars, or guyots, that have been thrust up. They
block off the flow of ice to the sea, and thus increase the Ice
Cap’s weight.
The ice appears to have been thrust upward with such speed that the
momentum caused the upper sections of the glacial ice to become
detached from the parent ice on the floors of the bowls. Some of
these upper layers of ice were extruded so violently that they broke
into great blocks, the size of houses and ships, some of which
landed on the lower ice shelf and some back in the craters.
The rocks under these bowls have been thrust up as the result of the
same processes, described on page 101, that have formed the
underground pillars of salt, the clay pipes of the diamond mines,
and the ocean guyots as well as the ice mountains.
The contours of
the tops of these rock extrusions are either flat or irregular,
depending on whether the ground levels from which they were extruded
were even or very rough. It is predicted that when some of the sheer
wall like coastal mountains are examined more closely the rock
surfaces will be found to look less aged less eroded and spalled by
frost action than mountains rising above the ice sheet in the inland
areas. This will confirm their more recent creation.
Where a long range of mountains now located inland from the sea
coast lies parallel to it, the presumption is that the inland range
at one time was actually at the coast. The mountain range of Queen
Maud Land, 100 miles or more inland, is an example.
Greenland’s topography indicates that the mountains along its sea
coasts have been thrust up by the same process. Its central plateau
of ice is about 10,000 feet above sea level and is contained by
these mountains, now forming most of its sea coasts and shore lines.
In the central areas the rock floor has been depressed below sea
level by the weight of the ice.
Antarctica’s highest elevation is reported to be approximately
14,000 feet above sea level. Recent depth recording echo soundings
have disclosed that the rock floor, in some central locations, is a
mile below sea level. Thus, the maximum ice column may be estimated
to be approximately 19,000 feet in height.
The resulting pressure on
the rock floor is over 7,500 pounds per square inch over 1,000,000
pounds (500 tons) per square foot at those particular locations,
assuming that the ice weighs uniformly 57.5 pounds per cubic foot.
To repeat, this bottom pressure appears to find relief at the sea
coasts by pushing up the coastal mountains.
It has been noticed that striated glacial markings are found on the
rocks forming one side of a glacier filled valley, and that no
markings appear on the softer rocks forming the opposite wall of the
same valley. The markings on one side could never have been made by
the valley glaciers; if the glaciers had reached higher previously,
both sides of that valley would have striated walls. It is more
reasonable, then, to assume that the rocks have been forced upward
than that the glaciers have sunk down.
Apparently the rocks on both
sides of the valley have been thrust upward by underground pressure,
caused by the central ice weight, the striated one by tilting and
the softer, unstriated rocks by direct levitation. It is also
postulated that enormous striated rock masses have been carried
seaward because of the inland ice pressure.
Starving glaciers have been reported by explorers who have observed
cirques and bare mountain walls. But available photographs show that
bare walls always occur on the north side, except where flowing
glaciers are carrying the ice seaward by the force of gravity. The
glacial ice does not appear to be starving on the south side of
valleys, where inland ice pressures apparently fill all available
space with ice.
Oases, which are limited areas of bare rock and sand, free from snow
and ice, are found in the midst of ice covered areas. Some explorers
and writers maintain that these oases indicate that the entire Ice
Cap is waning. The phenomena are explained more rationally, however,
by the theory of earth electric currents, which heat the land and
cause snow and ice to melt. They are the cause of the fumarole of
Mount Erebus. (See "Volcanoes and Hot Springs," Part III, page 236.
)
Iceland, as an analogy, has both glaciers and hot springs. Many
buildings in the city of Reykjavik are heated in winter by the hot
water piped from the hot springs. Ice free areas and frozen lakes
are attributed to the same cause that creates the hot springs. It is
obvious that the cold storage facilities of the great Antarctic
continent are reduced by only a tiny fraction by the relatively
small areas of localized heat.
The Creation of Mountains
THE forces of nature react on each other in various ways during the
active periods of global careenings. Because of the curvature of the
globe the centrifugal forces of the rotating ice caps which initiate
the careens soon reach a maximum and then diminish.
When the ice caps have migrated 45 degrees of latitude their
centrifugal force responds to the combined motions of careening and
rotation. Between the sun latitudes of 45 and 0 degrees they change
from being upsetting to being stabilizing forces.
Equatorial bulges then start to form, and the centrifugal forces of
the ice caps and of the new bulges of the earth are soon working in
unison to bring the reeling motions of the globe to a rapid slow
down and stop.
In the meantime, kinetic energy which has developed in the
continental land masses because of their weights and velocities,
collides with the combined energy of the newly generated bulges of
the earth and of the ice caps.
The result of these collisions of forces is that the energy of the
moving continents is absorbed by the crushing, elevating, and
wrinkling of large land areas whose rock strata are crumpled and
bent in ridges at right angles to the forces being dissipated.
A striking illustration of the formation of mountain ranges, by the
dissipation of the mechanical energy of the rolling earth masses
when brought to a halt by a superior force of global stabilization,
is the great chain of mountains lying approximately at right angles
to the directions of motion of the last three rollarounds of the
globe. They extend along a nearly perfect meridian circle skirting
the basin of the Pacific Ocean, traversing the west coasts of South
America and North America and parts of Asia.
The directions in which
the three last North Pole ice caps moved, while rolling the globe
sideways to its normal direction of rotation, were,
(1) On a line
from the Hudson Bay Basin of Canada to the Caspian Sea Depression of
Russia (which previously had been at the North Pole),
(2) From
Hudson Bay Basin (which had been at the North Pole) to the Sudan
Basin of Africa,
(3) From Sudan Basin to present North Pole.
It is customary to refer to Africa as "a plateau of continental
size, because its margins are abrupt..." (Elements of Geography,
by Vernon C. Finch and others).
The elevation of the continent of
Africa is due to the centrifugal force of the most
recent roll around of the globe, which was spearheaded by Africa and
its ice cap; as mentioned before, the depression of the great Sudan
Basin remains as a telltale evidence of this ice cap.
The wrinkles and folds in the rocks of the earth’s upper layers are
not uniformly distributed. They are not, for instance, like the
surfaces of desiccated plums (prunes) and dried apples, whose
wrinkled surfaces do not have fault foldings, as do some of our
mountains. Such evidence provided by the earth itself, helps to
refute the older theory that the wrinkling of rocks into mountains
indicates that the earth is shrinking in volume. We now know that it
is growing in volume.
Cross sections of the Appalachian mountains and the Alps show
shallow folds of rock strata, the result of great compression forces
acting tangentially at that point of the earth. Below these folded
strata are other earth layers making up entirely different
formations; that they are unaffected by the local surface forces is
shown by countless illustrations in geological literature. This, in
turn, indicates that the folds have been caused by surface forces
which did not affect the lower earth strata.
The warping and the folds of localized earth layers become corollary
evidence supporting the theory of recurrent careenings of the earth
and of the tangentially imposed compression forces. The energy
involved in careening earth masses, when brought to a halt, is
sufficient to create the observed folds and warpings and is also
great enough to change the horizontal position of many earth strata
to a vertical one, and also to cause the synclines and the
anticlines in the earth’s rock structures.
All changes in tile surface of the earth are due to forces which
even in our day are either active or latent, and these forces will
continue to produce similar changes for the duration of the earth’s
existence.
Mountains of the Rock of Gibraltar type indicate clearly that a
vertical geological break or fault bas occurred in such rock strata,
and that it was caused by an irresistible force; it brought about an
upheaval or elevation of the tiered underground earth strata on one
side of the fault, exposing the laminated strata in one sheer face
or precipice. The other sides of such mountains will usually slope
clown gradually, the earth’s surface being practically as it was
before the upheaval, but it is now slanted to the horizontal.
The precipitous face of this type of mountain weathers and erodes
increasingly toward its summit, and the area around its base is
filled with talus, breccia, and debris deposited on what was
formerly the surface of the earth on the opposite side of the
geological fault.
Mountains of this kind are produced not only when the earth careens
and then rapidly ceases its reeling motion, but also during ice ages
such as the ones now prevailing in Antarctica and Greenland. The
normal workings of isostacy equalize the ice and rock pressures by
underground earth movements, including rock fracture and rock flow.
The Ice Cap in Antarctica, for example, exerts a pressure, at sea
level, of about 500 tons per square foot on the underground rock
materials. This pressure can be relieved only by lateral rock motion
in the center and by lateral and upward motions of the rocks at the
edges of the continent.
Some parts of the mountains forced upward by the lateral underground
flow of rock materials as occurs in the coastal mountainous areas of
Greenland and Antarctica will be found to lack well marked
stratification, for the stratifications become distorted in those
parts of the rock materials which have been forced to flow.
Subterranean pressures have raised up mountains of various shapes.
Some, like Gibraltar, appear with slanting elevations placed almost
on end; some look like humped mounds; others resemble a long finger
of uplifted stratified rock layers, their centers welling up like
heads of well developed cabbage which have been tremendously
elongated, and which have divided numerous layers of the upper rock
strata.
Sheep Mountain on Wyoming’s Big Horn River is an example of the last
mentioned type. In the course of time the center section, where
broken, has eroded away to form a hogback mountain. The harder or
more durable rocks of the cracked outer strata have eroded and
become ridges paralleling the contour of the main formation.
The unusual appearance of Steamboat Rock at Dinosaur National
Monument, Utah, its shape and flat stratifications, resembles a
multistoried New York City skyscraper with setbacks on one face and
a sheer flat precipice face on the other. It appears to have been
extruded by subterranean pressures seeking relief.
The birth of a different class of small mountains, created by
volcanic heat, is described in Part III, in the chapter entitled
"Theory of Volcanoes."
The polar ice caps, which have existed in all geological epochs, are
a primary instigating cause of the creation of mountains. They
produce mountains by the pressures they exert while growing, and by
causing the globe to careen when they reach their maturity.
The successive layers of earth strata are clearly seen in many
mountains. This indicates that the strata now forced up to the
surface were once below the surface. The flat tops of some mountains
may have been the original level land surface, or the flat top may
be all that was left when the topmost layer or layers of the
mountain were carried away by a flood during one of the careenings
of the globe, or were floated away on the ice during an ice age.
The Ice Cap in Antarctica is suspected of separating mountain tops
from their bases by creating cleavages along the strata planes of
the mountain layers. A limestone layer will slowly dissolve in fresh
water, which is slightly acid. Such a layer might become so slippery
that the side pressures of the ice could cause the whole top section
of the mountain to slide sideways and be carried by the ice to the
sea coast like any other oversize boulder.
Submerged flat topped, conical mountains have been found in the
ocean. They are called "drowned ocean islands," or "guyots." More
than 500 have been charted in tire Pacific Ocean during the past
decade, and a few in the Atlantic.
The theory that these mountains were extruded and forced upward
either during ice ages or were decapitated by ice during an ice age
fits the facts more snugly than any theory yet advanced to account
for them. Their flat tops were probably the flat ground level where
the extrusion occurred. The "ice bowls," described in the section on
Antarctica (page 99) are postulated to have resulted from just such
extrusions.
Other well known types of earth formations fit into the theory like
the pieces of a jigsaw puzzle when they are explained as having been
caused by the tremendous pressures of overlying ice caps; and no
other adequate explanation has previously been advanced to explain
the phenomena.
The clay columns or "pipes" in which diamonds are found in
Africa
and Brazil, identified by me as beds which underlay ice caps are
composed of silt in nonsolidified but articulate form. The great
pressures created when ice caps develop above clay beds cause the
particles to rearrange their formation and to be squeezed into and
penetrate the upper adjacent materials of the earth, and therefore
the clays are forced into the shapes of long pipes.
The particles composing some African pipes have been termed breccia
because they consist of many small rock particles of widely varying
chemical composition. The fact that the pipes are like cornucopias,
with the large end up, is an indication of a sudden upthrust of
material under a great pressure which caused the upper part to
expand more than the lower part, the reason for this being that the
resistance of the lateral rock pressures were less great toward the
surface than deep down. The upper surfaces of rock strata in the
South African diamond area are marked by sharply defined straight
furrows characteristic of the ice ages.
Just why diamonds are found in these clay pipes is quite another
subject; but in view of the pressures created by a tremendously
heavy overlying ice mass, it seems reasonable to assume that the
carbon contents of animal or vegetable item strapped snugly in the
clays changed gradually into the diamond form of carbon
crystallization.
Ocean waters, trapped in landlocked basins following any one of the
many former roll arounds of the earth, evaporated and left behind
vast beds of salt with flat surfaces and bottoms having lake like
contours. The surfaces became overlaid by some of the many minerals
left behind when the sea waters evaporated. These, in turn, were
covered by various earth materials during the following epochs
between and during the recurrent careens of the globe.
In drilling for oil, sulphur, and other materials, it has been found
that pressures heretofore unidentified have forced some of the salt
upward into straight, smooth, sheer underground pillars. There are
usually several layers of the normal rock strata which cap these
salt plugs and appear to have spearheaded the advance of the softer
pillars as they emerged from the main salt beds, under pressure of
the overlying ice.
This release of pressure is somewhat analogous to the popping of the
cork from a bottle of champagne. "Ice bowls" and "ice mountains" are
similar extrusions forced by the ice cap pressures.
Salt pillars have been found only whenever salt beds have been
compressed into dome shapes, and both domes and pillars are natural
phenomena explained by ice cap pressures.
Domes as well as pillars
record the fact that an ice cap once existed in that locality.
Ocean Depths and Mountain Heights
CHANGES in the elevations and depressions on the earth’s surface,
caused by the locations of the earth’s bulge and axis being shifted
following each careen of the globe, are limited to 13 miles
vertically.
The diameter of the earth at the bulge of the Equator is
about 26 miles greater than the length of the polar axis, and
therefore the maximum change of land elevations and ocean
depressions is limited to half of the change in diameter at any
given point on the surface of the earth. The total changes on both
sides of the globe may add up to about 26 miles, but the changes on
any one side will not exceed 13 miles at the points of maximum
change.
These changes in elevations and depressions have occurred repeatedly
each time that the Axis of Figure has been shifted to a new random
location, and today the surface of the earth consists of innumerable
elevations and depressions.
The highest mountain peaks are nearly 6 miles above sea level, and
the greatest ocean depth almost 7 miles below sea level. They add up
to just under 13 miles just within the permissible theoretical
limit.
The Sudan Basin land area, which was at the North Pole during Epoch
No. 1 B.P., was moved approximately 13 miles further away from the
center of the earth when the globe last careened, while the land
areas now at the North and South Poles which were at that time near
the edge of the tropical zone were moved closer to the center of the
earth by about 13 miles.
These were cataclysmic disturbances in the surface layers of the
earth; yet, when the various forces involved readjusted the earth’s
surface in order to eliminate the conflicting pressures of the
centrifugal force of rotation, the kinetic energy of motion, and the
force of gravity, the total vertical distance between the greatest
depressions in the sea bottoms and the highest elevations of
mountains remained within the total possible range of 13 miles.
This balancing of existing pressures, effected by rapid movements of
rocks and other earth materials, resulted in the first post flood
isostasy or equilibrium of the earth’s stratifications. Since then,
isostasy has been maintained by the earthquakes which occur every
day.
The theory of the recurrent careenings of the globe caused by the
eccentric centrifugal forces of great rotating ice caps accounts for
the limitations found to exist for ocean depths and land elevations.
The tremendous forces which have torn earth layers apart and caused
mountains to be formed in chains, or ranges, can now be identified.
The reason that the floor of the ocean resembles the contours of the
land is no longer a mystery.
The great ice caps of the recurrent ice
ages aid in accounting for many of the geological faults, and for
the Ice
Front, which fringes much of Antarctica far out into the oceans. The
actual coastline is reported to be mostly unrecognizable, due to the
continuity of the ice which extends out into the sea from one
hundred to several hundred miles.
The earth has been rotating on its present Axis of Figure for about
7,000 years, as shown by the time scale of Niagara Falls (see the
chapter on "Rivers," page 35) . The Ice Cap has grown during that
period of time to a height of 14,000 feet above sea level. The
weight of the South Pole Ice Cap now approximates the astronomical
figure of nineteen quadrillion tons 19 followed by 15 ciphers.
This
figure is derived from the statement of U.S. Coast and Geodetic
Survey to the effect that if the ice of Antarctica were uniformly
distributed around the earth, it would make a layer 120 feet deep.
One arrives at the same figure by assuming a cone two miles high
with a base diameter of 2,800 miles.
The heat of the sun strange as it may sound causes the great South
Pole Ice Cap to grow continuously. If one keeps the globe in one’s
mind’s eye and pictures air currents rising everywhere throughout
the temperate and tropical zones caused by air becoming heated by
the sun’s rays one will notice that heated air rises, since it
expands and thus becomes lighter. Heavier, colder air flows in
beneath it.
In the southern hemisphere, below the Equator, the rising air
currents flow south. They cannot flow north, because similar air
currents are rising on the north side of the Equator.
Since the earth is a sphere, all of the south flowing air currents
must converge at the South Pole. These air currents meet "head on"
from every direction, and, because of the speeds of their motions,
they build up air pressures over the polar areas. These pressures
are relieved when the air currents curve downward because of the
fact that colder air is heavier; they thus reverse their directions
of flow and pour northward at low levels and at very high
velocities.
Clearly then, it is the beat of the sun’s rays, in other parts of
the world, that has caused the great South Pole Ice Cap to grow to
be approximately two miles high in approximately 7,000 years.
It is
also evident that the growth of the Ice Cap started and continues
because of the physical property of air to act like a moving
conveyor, to absorb water like a sponge when warm, and to wring out
the water when cold. The south flowing air currents become so cold,
as they approach the South Pole, that the moisture is wrung out of
them.
At Little America the general flow of the air currents is from the
north at high altitudes, and from the south at low altitudes. The
south flowing air currents are found at altitudes of 3% to 7 miles
(U.S. Navy, Hydrographic Office, Bulletin No. 138, "Sailing
Directions for Antarctica, 1943," page 38). Theoretically, there
should be more precipitation of moisture on the inland area than at
Little America because the air flowing south is warm, moist, and
high up, while the air returning northward is cold, dry, and at a
low altitude.
On the journey southward the air becomes increasingly chilled, and
naturally forces precipitation. On the return journey northward, the
air currents begin to warm and this naturally increases their
capacity to retain moisture. Such winds would be expected normally
to produce cloudless skies over Little America. The air at Little
America is reported very dry although the relative humidity is high,
the air holding ’s of 1 per cent of moisture. The same air in
tropical regions often contains up to .3 per cent of moisture at sea
level, or about 15 times as much.
Less precipitation will fall on areas facing the open ocean, as does
Little America, than on those facing the continents, of Australia,
South America and Africa, remembering that the winds which bring in
the moisture and snow are strongest opposite the continents. The
continuous fall of snow and hoarfrost produce cold storage ice. A
small amount melts in summer, but practically none melts during the
winter months when the sun is generally below the horizon.
Studies made during the International Geophysical Year (1957 8)
reveal a peripheral zone of maximum collection of water, or
"rainfall", which increases inland from the coasts and then
decreases at the Pole. Reports of accumulation of water range from 2
inches to 2 ? inches at the pole, each year, to 33’2’ in the area
facing Australia, where the great cyclone winds bring in the most
moisture.
Today, many scientists find that the ice cap is growing, and several
have issued statements regarding the yearly rate of growth. Ten
years ago textbooks generally maintained and students believed that
it was waning. Our own National Science Foundation prefers to defer
any final estimate or statement. They wish to thoroughly analyze the
detailed reports of yearly precipitation of moisture and to check it
against the ratio of ablation and flow off of icebergs in many
areas.
They know that a statement to the effect that the ice cap is
growing will be the signal for an all out attack to halt its growth,
at a cost equal to that of a war. If and when they announce that it
is growing and is not waning, the rate of its growth will not be as
important as the number of years before it, in combination with the
wobble of the earth, will cause a roll around of the globe, with a
catastrophic flooding of ocean waters over the land areas.
Just as a growing tree sheds leaves, but a dead one does not, a
growing glacier sheds icebergs, but a waning glacier does not. We
have records dating back several hundred years which show that the
South Pole Ice Cap has been shedding great icebergs for as long as
men have navigated the adjacent waters. It continues to be a
prolific breeder of icebergs, which adds proof to the theory that it
is growing and is not waning.
The flow off of icebergs shows us that the South Pole Ice Cap is
bursting at the edges continuously. The extrusion of the ice shelves
and the ice cliffs, into the sea, results from the pressures of the
inland ice; and the ice pressures result from the weight of the snow
and ice continuously building up in the central areas.
A part of the Ross Ice Shelf containing a section of
Admiral Byrd’s
Little America has already been extruded so far out into the sea
that it has broken off and floated away. The rest of Little America
will follow. The shelf ice on which the German Weddell Sea
Expedition of 1911 12 was based, and the deck ice used by the
Norwegian British Swedish Expedition of 1949 - 52, have both
disappeared by breaking loose, calving, and floating out to sea as
icebergs.
An iceberg 208 miles long, 60 miles wide, and extending below the
surface about 700 feet, was sighted by the American icebreaker
Glacier in November 1956. Its area was about that of the states of
Connecticut and New Jersey combined. It was a "calf" of the Ice
Front. Another iceberg 240 feet above the surface, which indicates
probably around 2,000 feet below was reported by Captain Scott.
A growth of about two feet a year is shown for the Ice Shelf on
which Little America is located. In 1929, Admiral Byrd erected two
70 feet long steel radio towers, projecting 60 feet upward. In 1934
they had been so covered by snow that they projected only 30 feet.
In 1947 they were 18 feet high. In 1955, one extended 8 feet, and
the other 10 feet, above the level of the Ice Shelf.
A growth rate of about a half foot per year is disclosed by
photographs of another part of the fractured front of the high ice
cliffs fringing much of Antarctica. Along the coast an average of 80
feet projects above the ocean, on which it floats, and about 160
varves or annual layers of the ice accumulation are visible
indicating about 6 inches per layer. This Ice Front is about 800
feet thick. It is an extrusion of the Ice Cap which extends more
than 100 miles out into the sea, but is still attached to the inland
ice.
Sir Douglas Mawson has reported his observations of the winds at
Adelie Land, which is adjacent to Wilkes Land. In 1911 14 he found
that the winds continually poured off the Ice Cap, exceeding a
velocity of 90 miles per hour for periods of more than 24 hours, and
reaching puffs of 180 miles per hour. The rate averaged 51 miles per
hour for the entire year.
These terrific winds at Adelie Land are caused by the nearness of
the continent of Australia. This enormous rush of icy, dehumidified
air, pouring northward from the Polar Plateau, is the natural return
circulating air current, at sea level, of the moisture laden, heated
air which rose over Australia and poured south at high elevations.
Antarctica is surrounded on three sides by continents from which
heated air currents rise, flow south, converge at the South Pole,
turn downward and reverse their directions of flow after
surrendering most of their moisture content to promote the further
growth of the great lee Cap.
This makes it appear that the moisture
being carried Pole ward will have become precipitated as snow prior
to reaching the Pole. The lower altitude of the South Pole, compared
to the surrounding areas at higher latitudes may be due to less
precipitation at the polar center.
The Ice Cap Plateau is found to have an apparently sunken surface at
the South Pole. A vortex is suggested because the Pole is the center
of rotation, and higher elevations, producing greater pressures,
occur nearer to the center of the continent. The highest altitude
reached by both Scott and Amundsen was at 88 31’; this spot is at
least 1,000 feet higher than the South Pole which is 9,200 feet
above sea level.
The sunken polar center of the Ice Cap tends to
confirm both a minimum local snow fall and the underground flow of
continental rocks. The coastal mountains have been thrust up as a
result of the ice pressures on the rock floor of the lee Bowl. When
the central rocks went down the coastal rocks went up.
The base of the great ice pyramid grows ever larger in response to
the overlying ice pressures, this being the cause of the lateral
underground flow of rock materials. The widening of the base permits
the Ice Cap to become higher at the center, while the gradient or
slope of the glacial ice remains the same.
The extension of the base allows the weight to become greater; the
greater weight, in turn, increases the depth of the dent in the
earth’s surface, or the Ice Bowl, and this results in an additional
flow of underground materials to the coastal areas. What is going on
therefore is a progressive broadening of the base, by the widening
of the Ice Cap Bowl, with a concurrent increase in the total height
of the Ice Cap a vicious circle of continuous growth.
The tremendous weight of this great Ice Cap is now producing
pressures which will result in bulges or adjustments of adjacent
earth materials.
The ice embalmed continent of Antarctica is undergoing slow
geological changes, the result of which is a general increase in its
area due mainly to isostasy, or the adjustments of earth materials
to natural physical forces. Antarctica thus holds a key position in
the impending tragedy the next great deluge of the earth.
Analogous are the Hudson Bay Basin in Canada and the Sudan Basin in
Africa. The heights of the perimeter of the Laurentian Shield which
encompass Hudson Bay and bound most of the Hudson Bay Basin,
resemble ramparts of some gigantic fortress. This ridge is called
the "Height of Land" on maps of Canada, such as Goode’s School Atlas
by Rand McNally Co., 1930.
This ridge of land is also a watershed. The rivers on the inside
flow toward Hudson Bay, while those on the outside of the ring flow
away from it. This "bowl" was created by the Hudson Bay Basin Ice
Cap.
The lips of any bowl of earth which once held an ice cap must
naturally appear as a height of land after the glaciers have melted
and disappeared, because glaciated rocks and earth flow under
pressure.
Mountain ranges occur along the eastern coast of the Hudson Bay Ice
Cap Basin, bordering on Davis Strait called Labrador Highlands and
Penny Highlands in Labrador and Baffin Island, respectively. These
all have appearances of being analogous to the mountain ranges along
the coasts of Antarctica.
A peculiarity of the Laurentian Shield is the fact that the rock
formations slope gradually on the inside of the bowl, toward Hudson
Bay; but, the slope is steep on the outside of the bowl, in which
direction the rock materials were pushed.
The outer edge of the Height of Land drops off 200 to 300 feet per
lateral mile, and is fairly uniform for more than four thousand
miles. The diameter of this great ring ridge averages about 1,500
miles, and the land area is shaped like semi plastic mud would
appear into which you had slowly pressed your booted foot.
Such a ridge, ring, or "height" could be expected to develop in a
natural manner if an irresistible force were pushing rocks and dirt;
and it is therefore assumed, by analogy, that similar pressures and
the same process of nature are now causing similar expansions and
elevations in the lands surrounding the Antarctic Ice Bowl.
The rock floor of the Hudson Bay Basin Ice Cap like that of
Antarctica was moved in from a tropical climate by a careen of the
globe, and it was covered by tropical vegetation. Then, under ice
pressures which rose to approximately four tons per square inch,
caused by the ice masses which gathered above it, all forms of
vegetation were compressed to an amorphous layer. Tree trunks and
branches were deformed and obliterated by the ice masses which
slithered over them.
Fossil specimens of past growths of vegetation
will rarely be found intact.
Telltale residue of buried organic matter, whose original forms have
been entirely eliminated (as mentioned as organic materials in clay)
are now being found in sections of the Laurentian Shield especially
in the black, slaty shales of some horizons of the Lake Superior
region. They owe their color to the dissemination of carbon derived
from organic matter.
An additional analogy is the Panama Canal, whose bottom was
incessantly forced upward in bumps and bulges, due to isostasy and
the weight of the surrounding hills. Lateral underground earth flows
equalized the earth pressures when the lesser weight of water in the
Canal replaced the heavier weight of the earth and rocks removed.
A communication from Hugh M. Arnold, Engineering and Construction
Director, Panama Canal Company, Balboa Heights, Canal Zone, of May
10, 1955, states:
"Any measurable heaving in the
Panama Canal
channel has been in the area of the famous Culebra slides,
intricately slickensided and highly bentonitic. Pressure of the
'rock’ from the adjacent banks sometimes results in a measurable
bulging or heaving of the bottom of the excavated canal."
Risings or upswellings of the earth surrounding areas of meadow land
in the vicinity of New York City have often been noted following
attempts made to reclaim such lands by filling with dirt.
Minor reasons for the growth of the Antarctic continent are the
terminal moraines which are developed from the materials carried by
the flowing glaciers and by the waters which in summer flow out from
beneath the ice.
Some of the many small mountain tops - nunataks - observed near the
coasts of Antarctica will eventually be found to be detached blocks
riding shoreward on the glacial ice, as did the small mountains of
northern New Jersey and southern New York which rode the glaciers
during the Hudson Bay Basin ice age.
The geology of Antarctica shows that the land was successively
submerged under the oceans, and was also repeatedly above sea level
during previous epochs of time. The horizontal strata of many of the
mountains contain layers of sandstone, limestone, granitic rocks,
and coal. The older rocks are assumed to be at the bottom and the
younger rocks at the top.
The limestone layers were created by corals and shellfish in shallow
ocean waters. The sands of the sandstones were also created in
shallow ocean waters. The granite rocks were created in upland areas
(see "Origin of Granite" in Part III, page 228 ). The coal strata,
found in the mountains, show that the coal areas were once wooded
bottom lands, marshes or lakes, in tropical or temperate climates,
where water logged vegetation was prevented from oxidation and thus
became coal.
The icebergs all drift away from Antarctica just as floating apples,
in a rotating tub of water, drift away from the center of spin. The
rotation of the earth creates a throw of centrifugal force which
causes the icebergs to move away from the Axis of Spin. Local
southerly winds aid in starting the northward motion; but the
icebergs continue northward after the local winds are left behind.
Nature is setting an example for us to follow. She is showing us how
we, too, can delay the next careen of the globe by making the
Antarctic Ice Cap lessen its weight by making it shed some of its
ice. If we act within Nature’s time limits, and if we greatly
accelerate the throw off of the icebergs, we can postpone the fatal
day when the great Ice Cap will roll the globe sideways, and follow
the icebergs to the tropics.
The great South Pole Ice Cap is a product of forces of Nature which
are created by the "Will of 'God'" and are beyond the understanding of
men.
The Ice Cap grows larger according to the Laws of Physics which
some of us must understand or most of us must perish. The Ice Cap
must be subdued by man or man will be subdued by the Ice Cap. Like
the Sword of Damocles poised by a hair at Dionysius’ banquet, it
threatens destruction, and in this case it will mean the destruction
of most of the human race.
Our corporal salvation depends on our ability to control the further
growth of the Ice Cap. Bleeding off the ice and making it gravitate
through newly made channels to the coasts, can lead to our only
salvation!
The North Pole area, in the epoch lasting until the next cataclysm
of the earth, will not have an ice cap, unless Bering Strait should
be closed.
Due to the Drag of Gravity (to be fully discussed in Part II), the
waters of the Pacific Ocean are forced against the west coasts of
North and South America. Because of this pressure, warmer sea waters
flow constantly through Bering Strait, from the Pacific Ocean to the
Arctic Ocean, at a normal speed of about four knots (about 4.6 miles
per hour).
Information regarding this rate of flow has been
furnished by the U. S. Navy Hydrographic Office, which has since
indicated that it may be only a surface speed. A daily flow of
around 10 trillion cubic feet, or approximately 41 billion tons of
water, was indicated by empirical measurements made by the U.S.
Coast Guard in 1936.
The currents in the Arctic Ocean were discovered when the ship
Jeannette was crushed by the ice and abandoned off Wrangell Island
in 1881 and some of its wreckage was picked up three years later off
the coast of Labrador.
The drift of the ice and the flow of the waters were proved to exist
by Fridtjof Nansen during his voyage on the Fram, and also by a
similar Russian vessel G. Sedov. Both drifted from a
position near the Pacific side to the Atlantic side of the Arctic
Ocean by becoming frozen in the floating ice. They both demonstrated
that the surface ice flowed in the direction of the Atlantic side at
a speed about the same as that of the wreckage of the Jeannette.
The floating ice on the surface of the Arctic Ocean is about 10 to
16 feet thick and it becomes rumpled into hummocks by the pressures
created by winds and currents.
Snow falls on the drifting ice, which acts like a conveyor belt
carrying it into the Atlantic Ocean, where both the snow and the ice
melt.
Were it not for the continuous flow of water, from west to east
through Bering Strait, the Arctic Ocean which averages about 4,000
feet in depth would have frozen solid centuries ago, and an Arctic
Ice Cap would have developed.
With two Ice Caps one in Antarctica and another in the Arctic our
epoch of time, between two careens of the globe, would have been
radically reduced in length, and our present civilization would
never have had a chance to develop.
Bering Strait as a connecting link between the oceans is seen to be
of vital importance to our civilization: it makes it possible for
the waters of the Pacific Ocean to flow into the Atlantic Ocean, via
the Arctic Ocean, and thus acts to limit the accumulation of cold
storage ice at the North Pole.
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