Columbia: Questions of Some Gravity
On February 1, 2003, the space shuttle, Columbia, met its fiery end in the dangerous manoeuvre of supersonic re-entry into the Earth’s atmosphere. Sadly, the crew of seven was lost. U.S. President Bush said, “In an age when space flight has come to seem almost routine, it is easy to overlook the dangers of travel by rocket, and the difficulties of navigating the fierce outer atmosphere of the Earth.”
It is a prime example of the difficulties we must endure while technology far outpaces science. In fact a faulty understanding of the electrical nature of the cosmos may have been responsible for the tragedy.
In that context, a report, published on the west coast in the San Francisco Chronicle, makes interesting reading:
"Top investigators of the Columbia space shuttle disaster are analyzing a startling photograph -- snapped by an amateur astronomer from a San Francisco hillside -- that appears to show a purplish electrical bolt striking the craft as it streaked across the California sky.
The digital image is one of five snapped by the shuttle buff at roughly 5: 53 a.m. Saturday as sensors on the doomed orbiter began showing the first indications of trouble. Seven minutes later, the craft broke up in flames over Texas.”
" In the critical shot, a glowing purple rope of light corkscrews down toward the plasma trail, appears to pass behind it, then cuts sharply toward it from below. As it merges with the plasma trail, the streak itself brightens for a distance, then fades.”
report has been discounted by lightning experts. However, the atmospheric
region where the shuttle broke up has been
dubbed the “ignorosphere” because
of the lack of knowledge about its electrical state. Suggestions
were made that the shuttle might have been struck by a “red
sprite” – a
poorly understood form of lightning seen above large thunderstorms.
But that has been discounted as being too diffuse a discharge
to do any damage.
Besides, there were no thunderstorms beneath the shuttle
at the time.
The Earth is enveloped in a cosmic discharge, centered on the Sun. So it is no surprise in an electric universe to have lightning from space follow the ionised trail of Columbia. The dense plasma trail left by the shuttle is an ideal “lightning rod” of vast dimensions that could easily give rise to the reported corkscrewing rope of purple light blazing down from above. The sudden brightening of the streak shows that power was being concentrated into a destructive arc near the shuttle.
It seems that conditions in the ionosphere led to a powerful lightning discharge to Columbia - a rare "bolt from the blue" - which may have damaged a critical component or surface of the space shuttle. The lightning would be practically silent in the thin atmosphere and it would burn like a plasma torch. And insulating material, like the shuttle tiles or their adhesive, may shatter or explode when struck by lightning.
The metallic surfaces of aircraft hit by lightning may show a little damage but it does not impair their airworthiness. Columbia, struck by a super-bolt while travelling at 12,000 mph, was terribly vulnerable. NASA might be advised to send a tiled wing panel for testing to a lightning research facility.
The upper atmosphere jet streams are an important consequence of the electrical energy input from space. When the earth encounters blasts of charged particles from the Sun, auroras increase, and the jet streams move south. Both are indicative of an increased electric current to the Earth. My colleague, Amy Acheson, noted that the edge of the jet stream was right over San Francisco about an hour before the alleged "lightning bolt" photo of the shuttle was taken. It may be useful to examine the position of jet streams with reference to thunderstorms in order to get a clearer picture of the electrical connection.
I agree with NASA experts who discount the possibility of damage to the shuttle wing upon takeoff from a piece of lightweight foam.
Columbia disaster seems to have prompted an opportunistic article in
WIRED magazine. The article highlights
a new technology that
is said to make possible a science-fiction idea
publicized by Arthur C. Clarke
in his 1978 novel, Fountains of Paradise, – the
space elevator. Theoretically, it could provide
a far cheaper method of reaching space.
But is this technology too far ahead of the science?
To the Moon in a Space Elevator?
By Steve Kettmann
The Columbia disaster could spur faster development of a radically different approach to reaching outer space: the space elevator.
Long imagined by science-fiction writers but seen by others as hopelessly far-fetched, the space-elevator concept has advanced dramatically in recent years along with leaps forward in the design of carbon nanotubes. Using the lightweight, strong carbon material, it's feasible to talk of building a meter-wide "ribbon" that would start on a mobile ocean platform at the equator, west of Ecuador, and extend 62,000 miles up into space.
Carbon nanotube (CNT) is a new form of carbon, equivalent to a flat graphene sheet rolled into a tube. CNT exhibits extraordinary mechanical properties: the Young's modulus is over 1 Tera-Pascal and the estimated tensile strength is 200 Giga-Pascals.
An elevator could be attached to this ribbon to ferry materials such as satellites and replacement parts for space stations -- or even people -- up into space. The project could become a reality as soon as 15 years from now, experts say.
" Technically it's feasible," said Robert Cassanova, director of the NASA Institute for Advanced Concepts. "There's nothing wrong with the physics."
Here we have another example where technology has outstripped science.
So, when Robert Cassanova says "There's nothing wrong with the physics" we may be sure that he means the old, electrically sterile physics applied to the cosmos.
The continual cosmic discharge, which powers the storms on Earth, must be considered when placing long conductors radially to the Earth. Some years ago, the tethered satellite experiment suffered a plasma discharge that severed the tether cable as it was being reeled out from the space shuttle. That phenomenon will be repeated on a grand scale in any attempt to stretch a conducting elevator cable from Earth into space. The power that drives regional thunderstorms will be concentrated into a single cataclysmic thunderbolt, destroying the elevator cable like a thin fuse wire. In the worst scenario, the 50km high ground station will be replaced by a neat, circular crater, like those seen elsewhere in the solar system and attributed, erroneously, to meteoric impacts.
Gravity is the problem, understanding it is the solution.
The space shuttle is a technological marvel that must harness brute chemical and aerodynamic forces in order to overcome the weak force of gravity. The reason for such an approach is that we do not understand gravity. When we finally understand it, it is likely that we will find much gentler means of leaving the Earth and returning. Until that time, manned space travel will remain ridiculously expensive and hazardous.
But wait a minute, didn’t Einstein give us our understanding of gravity? The physicist, Herman Bondi, put it most succinctly: “Wherever gravitation can be seen in action, it is well described by the theory, but its logical contact with the rest of physics is dubious.” Bondi also asked a crucial question, “if it [gravitation] is something so fundamental to matter, one might hope that one day it will throw light on the constitution of matter and on the nature of the elementary particles and forces from which it is composed. However, no relevant experiments are possible because the gravitational forces due to minute particles are so utterly minute.”
That is a curious insight, given that Einstein’s theory of gravitation makes the gravitational field a property of space, rather than matter. It is little wonder that after close to a century of concentrated effort, including that of Einstein himself, no connection has been possible between gravity and the quantum behavior of matter or between gravity and the electromagnetic atomic forces. Einstein’s view dismisses the idea that anti-gravity is possible and has powerfully discouraged serious investigation of the subject.
I believe Bondi was both right and wrong. He was right in that we should look to a fundamental property of matter for the origin of the gravitational force. He was wrong when he wrote that no relevant experiments are possible. The famous Millikan oil drop experiment was one in which the gravitational force of the entire Earth upon a tiny oil drop was balanced by the electrical force on a single electron. Sensitive gravitational experiments on atomic particles are possible when we use the entire mass of the Earth as the source of the test gravitational field. This is essentially what is done in anti-gravity experiments.
Einstein published his theory of gravitation, or general theory of relativity, in 1916. And so a new paradigm, or set of beliefs, was established. It was not until 1930 that Fritz London explained the weak, attractive dipolar electric bonding force (known as Van der Waals’ dispersion force or the “London force”) that causes gas molecules to condense and form liquids and solids. Like gravity, the London force is always attractive and operates between electrically neutral molecules. And that precise property has been the most puzzling distinction between gravity and the powerful electromagnetic forces, which may repel as well as attract.
So it seems the clue about the true nature of gravity has been available to chemists – who are not interested in gravity – and unavailable to physicists – who are not interested in physical chemistry (and view the world through Einstein’s distorting spectacles). Look at any average general physics textbook and you will find no reference to Van der Waals’ or London forces. What a different story might have been told if London’s insight had come a few decades earlier? Physics could, by now, have advanced by a century instead of being bogged in a mire of metaphysics.
on the London
force, or Van
der Waals’ dispersion
force is given
The London force originates in fluctuating electric dipoles caused by slight distortion of otherwise electrically neutral atoms and molecules. The tiny electric dipoles arise because the orbiting electrons, at any given instant, cannot shield the positive charge of the nucleus equally in all directions. The result, amongst a group of similar atoms or molecules is that the electric dipoles tend to resonate and line up so that they attract each other.
Obviously, gravity is distinct from the London force. It is much, much weaker. That should be a clue. What if we are looking at gravity being due to a similar electrostatic distortion effect in the far smaller constituents of each atom? Of course, this is heresy because the electron is supposed to be a fundamental particle, with no smaller constituent particles. However, there are experiments that challenge this belief. What is more, this model of an electron offers a simple mechanism to explain quantum theory and the relationship between magnetism and the electric force.
It explains the puzzling observation that electrons don’t simply radiate their orbital energy away and crash into the nucleus. It is because electrons in an atom store and release internal energy during each orbit in the form of varying electric dipole distortion. So a stable orbit is achieved simply when the energy exchange between the electron and the nucleus sums to zero over each orbit. It is the resonant electron orbits that determine the quantum nature of atomic interactions. The same resonances apply within the compound atomic nucleus. If we apply the London force model, both protons and neutrons form resonant structures of electrostatic dipoles that are powerfully attractive because of their closeness, unlike a simple Coulomb electrostatic model that would have the positively charged nucleus fly apart. It explains the need for neutrons to give stability to a compound nucleus. And in the process, it allows the normally unstable neutron to adopt a stable resonant configuration. Such a model suggests that a neutron star is a theoretical figment of overzealous mathematicians.
If gravity is an electrostatic induced dipole-dipole force between the fundamental particles of normal matter, then it cannot be shielded because all matter, whether charged or not, will participate. And herein lies the difficulty for antigravity devices. How to modify the strength of those fundamental particle dipoles, or better, to invert them? I have discussed some attempts that seem to have succeeded in offsetting the dipoles slightly from the Earth’s radius. See “Antigravity?”
There is another important consequence of taking into account atomic electric dipole effects. A ponderous body will introduce an additional dipole effect, that of the gravitational offset of the heavy nucleus from the centre of the atom. This effect can set up a radial electric field that may lead to charge separation and stratification in the conducting interior of a body, particularly stars and gas giants. In that case, electrostatic repulsion between similar charges will serve to offset compression due to gravity. The usual determination of density will therefore tell us nothing about the internal structure and composition of such a body. Certainly, such powerful electrical forces will prevent gravitational collapse and the formation of mythical neutron stars and black holes. The evidence presented for the existence of such objects is already explained by cosmic electric discharge activity.
A new technology based on the obvious electrical nature of matter will look quite different from that based upon our Victorian vintage science. As Arthur C. Clarke wrote,
“Any sufficiently advanced technology is indistinguishable from magic.”
We are long overdue for some magic!
© Wal Thornhill 2003