Mar
26,
2007
"Festoons" Add to Martian Mysteries
Swirling and layered Martian "sediments" have inspired planetary
scientists to see deposition from shallow water. But the electrical
theorists point to a more powerful force active in the Martian past.
The image above comes from the panoramic camera on NASA's Mars
Exploration Rover Opportunity, taken on January 2, 2006). NASA
scientists describe this as the best example yet of the Meridiani
Planum outcrop rocks on the margins of “Erebus Crater”. The image
shows well-preserved, fine-scale layering and what geologists call
"cross-lamination”.
Of particular interest to planetary scientists are the nested
“smile-shaped” patterns that sedimentary geologists call "festoons”.
These geometric patterns, they say, imply the presence of small,
sinuous sand ripples that form only in water on Earth. According to
a news release from the Jet Propulsion laboratory, “these features
are the preserved remnants of tiny (centimeter-sized) underwater
sand dunes formed long ago by waves in shallow water on the surface
of Mars”.
This explanation requires liquid water
flowing on the surface of a freezing desert planet. In other words,
it requires a vastly different environment on Mars in the past. The
explanation is also limited to observations of rocks on Earth that
have been interpreted under the questionable geological framework of
the uniformity principle: "things happening today are the best
indicators of things that happened in the past." Many decades ago
this assumption hardened into dogma, and it has led to a litany of
unresolved puzzles on Earth. In the space age it is a poor tool
indeed for understanding what we find on Mars.
The
dilemma has a simple resolution: stop ignoring electrical events
inscribed on Mars. Electrical phenomena, both ancient and modern,
range from observed
global dust storms and
electrical dust devils to the vast scars of electrical discharge in the past. For those
familiar with electrical scarring phenomena, the most outstanding
features on Mars –
Olympus Mons and
Valles Marineris–
shriek of stupendous electrical arcs carving the surface of the
planet.
According to the electrical theorists, electrical events vastly more
powerful than standard geological processes have shaped the solid
planets and moons in the solar system. Atmospheres and surface
material have been lifted from one body and fallen back or have been
dumped on another. In the process, elements and compounds were
modified and dust and melted spherules were formed, to rain down
upon a planet. These deposits were then heated by surface electrical
currents that changed sand into sandstone, recording the layered
deposition and electrical erosion occurring at that time.
Evidence for electrical exchanges between planetary bodies demands
that we give up our cozy belief in a nearly eternal, clockwork solar
system. The new data from space make clear that Mars was on a
different orbit in the past, a consideration that greatly expands
the possible explanations for the
puzzling images sent
to Earth by our Mars probes and surface rovers. Mars must have had a
quite different atmosphere and climate in the past. So from this
perspective, surface features that show “water action” on the frozen
desert planet are not unexpected.
Planetary scientists, however, have been unaware of a fact that
could change our understanding of planetary surfaces and the
surfaces of other rocky bodies in the solar system.
Electrical
discharge machining,
electrical winds,
electrostatic cleaning,
and electrostatic implantation can do everything that water can
do—and a good deal more. Electrified plasma can mimic the behavior
of fluid dynamics, while adding energies many thousands of times
more powerful than fluid erosion.
The key to the
“festoons” on Mars is evident in the pictures themselves. These
curious patterns are surrounded by the now-famous “blueberries”
occurring
on the Martian surface by the trillions. Experiments have never
produced counterparts to the Martian blueberries by depositing
hematite from water. But laboratory experiments have produced
precise counterparts
with electrical arcs.