Expanded Discussion of The HAB Theory
Gershom Gale
gershon1@netvision.net.il
Previous Poles
Two tilts ago, a polar cap was where there is
an even larger and deeper depression than the
Sudan Basin (a polar site before the most
recent tilt) -- present Hudson Bay. While the
Hudson Bay ice cap was in existence, the land
masses of India, Borneo, Africa and South
America lay in tandem along the equatorial
bulge. Identification of Hudson Bay as the
location of the North Pole two tilts ago comes
from calculations showing that it is
approximately the same distance from Lake Chad
in the Sudan Basin as the latter is from the
present North Pole, indicating again a
separation of about 80 degrees of latitude.
The location of the North polar ice cap three
tilts ago is ascertained in the same manner,
and proves to have been at the Caspian Sea,
which is located in a great depression similar
to that formerly occupied by the ice caps for
the Sudan Basin and Hudson Bay. All three of
these depressions are presently the drainage
focus for extensive river systems.
It becomes possible to trace depression after
depression as the location of a former ice
cap. Glacial striations were even discovered
on Permian rocks two centuries ago in the
Amazon Valley within an area of 20 degrees on
both sides of the equator. As a matter of
fact, such glacial striations are found in the
rocks of the Earth at random places all over
the globe. So-called Ice Ages can be traced
back through their telltale striations on rock
faces not only as far back as the Paleozoic
Era's Lower Cambrian Epoch of some 600 million
years ago, but even farther back, though these
records begin to dim over such a period of
time with continued capsizings and the
concomitant disruption of the Earth's surface.
Three such Precambrian ice cap sites are
located in Africa, three others in Asia and
two in Australia. Five glaciated horizons of
the Permian Period (230-280 million years ago)
are found in South America, and an equal
number of the most recent Ice Ages are located
in North America.
In the present geologic epoch, called the
Pleistocene (of the Quaternary Period and
Cenozoic Era), which, in essence, takes in the
past one million years, many hundreds of
capsizings have occurred. A partial listing of
some of the more important and obvious ice-cap
sites during the Paleozoic, Mesozoic and
Cenozoic eras can include:
- The Gobi Desert;
- Lake Victoria:
- Mar Chiquita in Argentina;
- The Black Sea;
- Death Valley, California;
- The Amazon Valley;
- Baikal Lake in the USSR;
- Lake Winnipeg;
- The Null Arbor Plain in Australia's
southwest;
- Baffin Bay;
- The Baltic Sea;
- The Congo Basin;
- The Mediterranean Sea,
- Great Bear Lake, Canada;
- Great Salt Lake, Utah;
- The Thar Desert in northwest in
India;
- Aral Sea, Uzbek, USSR;
- The Painted Desert- Lakes
Michigan-Huron-Superior;
- The Angola Basin off the coast of
western Africa;
- The Bighorn Basin, Wyoming;
- In northeastern Siberia in the
vicinity of Tabor
- The Takla Makan Desert north of the
Himalayas;
- The Canary Basin off the northwestern
African coast;
- Great Slave Lake, Canada;
- The Argentine Basin 930 miles
southeast of Buenos Aires;
- The Wharton Basin, 900 miles south of
Djakarta.
In every location at which records written by
nature or man can be studied, these sites
shows radial striations which pinpoint the
seat of a former ice cap. In the matter of
duration, geologic evidence indicates that an
individual ice cap may grow to maturity in as
short a span of time as 2,900 years, although
the average appears to be more in the vicinity
of 5,750 years. Only rarely does an individual
epoch last 6,500 years, and no other epoch
within at least the past dozen has lasted as
long as the present one....
Think about the finding of fossil trees, or at
least portions of them, at depths of 13,000
feet beneath the Earth's surface through core
boring; the discovery of 59 horizontal strata
of fossilized trees separated by massive
strata of marine clay -rock of non-fossil
variety at Sydney Mines in Cape Breton, Nova
Scotia; the fact that carbon-14 dating of the
flash-frozen mammoth remains found in Siberia
and North America clearly indicate an age of
7,500 years. All this material supports the
contentions of the HAB Theory.
Further evidence of Earth capsizings can be
found in the massive mineral deposits which
man is in the process of tapping.
For example, numerous salt beds are found in
subterranean strata. There is only one way to
rationally account for their presence: that
they were at one time the bottoms of land
depressions which filled with sea water, and
then became exposed again as salt wakes.
Seven successive beds of these salt deposits
have been found in central New York, and a
massive one is presently being tapped 1,000
feet below Cleveland, Ohio. Over 30 such beds
have been discovered in the American
Southwest, some deeply buried, some just under
the surface. The most significant on the North
American continent, however, is the one which
is presently being formed in a lake which,
while constantly evaporating, still covers an
area about the size of the State of Delaware
-- the Great Salt Lake of Utah. This
2,000-square-mile lake is the last trace of
the great prehistoric body of water known to
geologists as Lake Bonneville, which covered
an area of 20,000 square miles and was over
1,000 feet deep. The great Bonneville Salt
flats are on the surface now, but following
the next capsizing of the Earth they will
probably become silted over and eventually,
following further capsizings, will become yet
another of the multitude of subterranean salt
beds.
Coal is another mineral deposit clearly
corroborating the theory. Coal beds are found
in subterranean deposits on a worldwide scale,
including the Arctic and Antarctic, and even
beneath the ocean floors. Coal mines are
presently in operation in the Pacific off the
coast of Chile and in the Atlantic off Nova
Scotia and England.
There is only one way that coal can be formed.
It is the residue of warm temperate,
subtropical and tropical vegetation. Through
hundreds or thousands of years great
quantities of vegetative debris -- leaves,
twigs, fruits, branches, roots -- sink to the
bottoms of swamps, rivers or lakes. The water
covering them reasonably protects them from
the oxidation that would have occurred had
they been exposed to air.
At the time of a capsizing, these submerged
deposits are suddenly shifted to a region of
sub zero temperature, and the water above them
freezes. The polar summers bring enough of a
thaw to allow siltage to accumulate over the
mucky vegetation. When the next capsizing
occurs and the deposit is shifted back to a
tropical or temperate zone, this layer of silt
prevents oxidation of the vegetable matter
below it, while a new collection of vegetable
matter is accumulating on top. Through
repeated capsizings and increasing pressures,
the vegetation layers are compressed into coal
and the polar siltage layers become slate or
shale. Some of the coal mines in Pennsylvania
have shown as many as seven horizontal layers
of coal with as many corresponding layers of
slate or shale interleaved between. Recurrent
capsizings of the Earth is the only reasonable
explanation for such formations.
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