The “giggle factor” is an acute human behavioral reaction in response to mention of a certain kind
of idea that makes people uneasy, such as the idea of pathogens invading the
Earth from space, or comets or asteroids striking Earth. (1) The eyebrows of
listeners go askew, and public or private chuckles break out—“behavior
considered unthinkable when discussing means to avert or mitigate catastrophic
epidemics, wars of aggression and genocide, and terrestrial natural disasters
that have peppered man’s history on Earth.” (1)
 |
| Scanning electron
microscopy image of an interplanetary dust particle collected in the stratosphere.
The cluster-of-grapes morphology and composition of this type of particle
are consistent with a cometary origin. The particle measures around 10
microns. Source: http://wwwscielo.isciii.es/img/im/v8n1/02LlorcaFig2.jpg;
accessed August 26, 2007. |
Astronomers Sir Fred Hoyle and Dr. N. Chandra Wickramasinghe wrote Diseases
from Space in 1981 along their steep climb to notoriety among elite
scientists for proposing the scientific heresy that interstellar dust particles
may well be desiccated bacteria, as described elsewhere. (2) They did not
come to their ideas light-heartedly; between 1971 and 1981 astronomers discovered
more than thirty organic substances present in the gas that exists between
stars, particularly in the huge gas clouds out of which new stars are continually
born. (2) Hoyle and Wickramasinghe, both prolific writers, followed up with
a clutch of books bearing on the topic, including Our Place in the Cosmos,
published in 1988 and A Journey with Fred Hoyle in 2005 (chapter
11).
In their well-written and persuasive books, Hoyle and Wickramasinghe present
arguments and facts that support the concept that the viruses and bacteria
responsible for the infectious diseases of plants and animals arrive at the
Earth from space. [Turn off giggle factor here.] Furthermore, they argue that
apart from their harmful effect, these same viruses and bacteria have been
responsible in the past for the origin and evolution of life on the Earth.
In their view, all aspects of the basic biochemistry of life come from outside
the Earth, which is also the idea of panspermia. (3) Hoyle and Wickramasinghe
are part of a long line of ardent panspermists dating back to 4th century B.C.
Greek philosopher Anaxagoras, as described elsewhere. (4)
Before Hoyle and Wickramasinghe, few people linked the fields of microbiology
and astronomy. Indeed, once Hoyle remarked in a packed-house lecture,
“Microbiology may be said to have had its beginnings in the
nineteen forties. A new world of the most astonishing complexity began then
to be revealed. In retrospect I find it remarkable that microbiologists did
not at once recognize that the world into which they had penetrated had of
necessity to be of a cosmic order. I suspect that the cosmic quality of microbiology
will seem as obvious to future generations as the Sun being the centre of or
our solar system seems obvious to the present generation.” (5)
Hoyle first described the role of biology in astronomical phenomena and processes
in his 1981 book titled Space Travelers: the Bringers of Life.
Challenging Charles Darwin’s Theory as the Orthodox Theory
British naturalist and aristocrat Charles Robert Darwin (1809-1882) and his
long line of disciples propose a now-famous theory of evolution, which has
remained the orthodox version, through, as Hoyle says, a “sustained campaign
of propaganda on the part of biologists, and by a blind eye being turned to
every fact to emerge in later years that appeared to go against the theory.” (6)
Darwin’s theory asserts the earliest living cell assembled from inorganic
molecules in “a warm little pond” on Earth when a bolt of lightning
or other source of energy struck the water. “Subsequent mistakes of copying
(mutations) and occasional doublings of genes, together with a continual sieving
out of the ‘unfit’ in relation to every terrestrial environment,
led to the products of evolution that are seen today,” according to this
19th century theory. (6-8)
Distinguished physicists who were contemporaneous with Darwin, including Lord
Kelvin, Helmholtz and Arrhenius, questioned the “earthbound theory and
attempted to point the way towards a cosmic view of life,” as described
elsewhere. (4,6) Biologist Ferdinand Cohn (1828-1898), the gentle founder of
bacteriology and an ardent panspermist, wrote in a neglected seminal treatise
titled Bacteria: The Smallest Living Organism (1872), the following
stunning and prescient words:
“We know that the numberless meteoric stones which have fallen
to the earth, were once independent bodies or parts of such. In certain meteorites
carbon, and certain combinations containing carbon, have been found, which
points to organic formation. It is possible to think, that at some time a germ,
with life and capacity for development, could have survived the glowing heat
which generally accompanies the entrance of a new comer from space into our
atmosphere, and that from such a germ all living beings might have descended.
Thus, some time the commencement of life may have descended from Heaven upon
this lifeless earth; as according to the myth, the living spark was brought
down by Prometheus from Olympia. (9)
Cohn even posited that some of the infinitely small bodies of terrestrial
bacteria could be carried by the winds to extraordinary heights, even reaching
space, to effect a reverse panspermia (Earth animals seeding other celestial
bodies). (9)
In addition to challenging Darwinian theory, Hoyle and Wickramasinghe assert
that panspermia challenges the Christian Church belief that “nothing
that happens in the heavens could have any conceivable effect on the Earth.
The heavens were merely an adornment that was of no practical importance in
day-to-day life (except for the Sun, whose beneficial effects were not denied)”.
(10) Panspermia is a continuous process involving the entire Universe.
A discussion of how scientists arrived at the concept of bacteria as interstellar
dust grains is available elsewhere. (2) What is the evidence to support the
hypothesis that microbes enter into the Earth’s atmosphere, and exactly
how do they accomplish this, according to Hoyle and Wickramasinghe?
Evidence that Microbes Reach in to the Earth’s Atmosphere
Microbes exist inside of comets, according to Hoyle and Wickramasinghe, which
originated within our solar system as a by-product of the formation of the
outer planets Uranus and Neptune, as described in Lifecloud: The Origin
of Life (1978). “A soft landing of a comet on the Earth about 4
billion years ago then could have started life”. Earth continued to pick
up debris from comets that have long periods and short periods of revolution
around the sun as they pass by Earth, resulting in micrometeorite showers,
which leads to the “injection of disease-causing bacteria and viruses
on to the Earth.” (11)
By studying the historical pattern of the appearance of diseases, Hoyle and
Wickramasinghe discovered what they believe is strong prima facie evidence
in support of their contention that pathogens come from space. For example, “the
rather sudden appearance in the literature of references to particular diseases
is significant in that it probably points to times of specific ‘invasions’.
Thus the first clear description of a disease resembling influenza is early
in the 17th century A.D. The common cold has no mention until about the 15th
century A.D. Descriptions of small pox and measles do not appear in a clearly
recognizable form until about the 9th century A.D. Furthermore, certain early
plagues such as the plague of Athens of 429 B.C., which is vividly detailed
by the Greek historian Thucydides, do not seem to have an easily recognizable
modern counterpart,” they say. (11)
Wickramasinghe continues:
“We noticed that epidemics and pandemics of fresh diseases,
both in historical times as well as more recently, have almost without exception
appeared suddenly and spread with phenomenal swiftness. The influenza pandemics
of 1889-1890 and 1918-1919 both swept over vast areas of the globe in a matter
of weeks. Such swiftness of spread, particularly in days prior to air travel,
is difficult to understand if infection can pass only from person to person.
Rather it is strongly suggestive of an extraterrestrial invasion over a global
scale. We argued now that it is the primary cometary dust infection that is
the most lethal, and that secondary person-to-person transmissions have a progressively
reduced virulence, so resulting in a diminishing incidence of disease over
a limited timescale. (11)
Indeed, “one of the most striking features in this whole story is that
the technology of human travel has had no effect whatsoever on the way that
influenza spreads, argue Hoyle and Wickramasinghe. “If influenza is indeed
spread by contact between people [the contagion theory], one would expect the
advent of air travel to have heralded great changes in the way the disease
spreads across the world. Yet the spread of influenza in 1918, before air travel,
was no faster, and no different from its spread in more recent times.” (12)
The influenza pandemic in 1918-1919 caused about 30 million deaths and it
remains in many aspects an enigma. Physician Louis Weinstein studied the information
about the spread of this influenza epidemic and concluded the following:
“Although person-to-person spread occurred in local areas,
the disease appeared on the same day in widely separated parts of the world
on the one hand, but on the other hand, took days to weeks to spread relatively
short distances. It was detected in Boston and Bombay on the same day, but
took three weeks before it reached New York City, despite the fact that there
was considerable travel between the two cities. It was present for the first
time at Joliet in the State of Illinois four weeks after it was first detected
in Chicago, the distance between those areas being only 38 miles…” (12,13)
SARS
Wickramasinghe, et al., estimate that a ton of bacteria fall to Earth each
day, which calculates to 20,000 bacteria per square meter of the Earth’s
surface. (14) “With respect to the SARS outbreak,” notes Wickramasinghe, “a
prima facie case for a possible space incidence can already be made. First,
the virus is unexpectedly novel, and appeared without warning in mainland China.
A small amount of the culprit virus introduced into the stratosphere could
make a first tentative fall out East of the great mountain range of the Himalayas,
where the stratosphere is thinnest, followed by sporadic deposits in neighbouring
areas.
“If the virus is only minimally infective, as it seems to be, the subsequent
course of its global progress will depend on stratospheric transport and mixing,
leading to a fall out continuing seasonally over a few years. Although all
reasonable attempts to contain the infective spread of SARS should be continued,
we should remain vigilant for the appearance of new foci (unconnected with
infective contacts of with China) almost anywhere on the planet. New cases
might continue to appear until the stratospheric supply of the causative agent
becomes exhausted.” (14)
Bird Flu Epidemic
“As new cases of bird flu continue to turn up at our doorstep, the appearance
of streams of migrating birds in our autumn skies must fill us with a sense
of foreboding,” notes Wickramasinghe. (15) “Flight paths that extend
across thousands of miles, several billion migrating birds inhale and recycle
large volumes of air at a height of about a kilometer above the ground. If
the birds are incubating the dreaded H5N1 virus, it is possible that vast numbers
of viral particles will be discharged into the atmosphere, some of which would
serve to nucleate raindrops, others which rise in updrafts into the stratosphere
and are carried around the world. (15)
Planning for the next pandemic includes measures to minimize unprotected exposure
to mist and weather, as soon as cases are detected in any locality. “The
use of face masks could possibly reduce attack rates, as well as a general
reduction of non-essential travel. It might also be profitable to explore the
feasibility of deploying modern techniques of molecular biology to indentify
viruses in the environment (air and rainwater samples), with a view to preparing
vaccines ahead of major infective outbreaks. Such measures should of course
to be considered in addition to the other precautions currently in train.” (15)
Testing for Bacteria in the Stratosphere
One way to test the hypothesis that bacteria and viruses are continuously
falling into the Earth’s atmosphere is to sample the Earth’s upper
atmosphere for these microbes. Balloon flights into the stratosphere, up to
heights of about 40 kilometers, made in the early 1960s, obtained viable microorganisms
that could be cultured by relatively simple means. “The equipment was
sterilized before each flight, and two similar experimental packages were flown,
one package being exposed to the atmosphere and the other not, the unexposed
package serving as a control. Since viable microorganisms were not obtained
in the control package, those obtained in the exposed package would appear
to have been genuinely atmospheric,” explain Hoyle and Wickramasinghe.
(16)
“The results showed that there were 0.01-0.1 viable bacteria per cubic
meter…Taking a viable bacterial density of 0.1 cubic meter as representative
of the whole stratosphere, it is easily calculated that the total number of
bacteria resident in the stratosphere at any moment should be about 1018, and
since bacteria fall to ground-level from the stratosphere in about a year,
the annual incidence at ground-level of viable bacteria culturable by rather
simple means should be 1018.” (16)
Additional experiments with balloons at 41 kilometers (well above the troposphere
where contamination might be a problem) with results published in the early
2000s demonstrated viable bacteria in air sampled from the stratosphere, including Bacillus simplex and Staphylococcus
pasteuri and a fungus called Engyodontium album. (17)
The issue with experiments such as those cited above is that when researchers
find viable microorganisms at great heights in the stratosphere and mesosphere
(above the stratosphere), critics then maintain that the microbes have been
carried upwards from ground-level. Thus, conducting such experiments appears
to be wasted because “no positive result is possible, and one has to
accept the position that the theory can only be falsified but not proved in
this way, a somewhat less than satisfactory position”, observes Hoyle
and Wickramasinghe gloomily. (18)
How DO Microbes Get into the Earth’s Atmosphere?
The Earth moves at an extremely high speed (about six miles per second) with
respect to the halo of debris from long- and short-period comets in which she
is continuously embedded. (19) Microbes in cometary debris would explode on
hitting the surface of the Moon, which has no atmosphere, but would have their
speeds checked much more slowly in the Earth’s upper atmosphere because
the gas density there is very low. (19) “In effect, by being slowed right
down over 100 kilometers above the Earth’s surface, the microorganisms
would secure a soft landing, and not be destroyed like insects on a car windscreen,” assert
Hoyle and Wickramasinghe. (19).
Bacteria are very small and would be heated to about 500 degrees Centigrade
on their way through the Earth’s atmosphere nevertheless. (20) Dr. Shirwan
Al-Mufti, the astronomer son of an Iraqi general, who is on staff at the University
of Wales, College of Cardiff, conducted an experiment in which he stuck tubes
of bacteria into hot ovens (between 300 and 700 degrees). “After withdrawal
from the furnace, each tube was broken open and its contents transferred to
a nutrient broth...In all cases up to the highest temperatures for which the
furnace was accurately calibrated, growth occurred, eventually back to normality.”
Interestingly, Al-Mufti was able to rule out contamination from the laboratory
because of the way in which the bacteria cells grew after leaving the furnace. “E.
coli bacteria normally replicates by binary fission, each cell dividing
to form two daughter cells. Growth following flash heating occurred in clusters,
with a bacterial cell usually dividing to form more than two daughter cells,
commonly a cluster of four. This is a known property to happen with many species
of bacteria after they have been subjected to severe stress, and so provides
a useful verification that growth has not been due to stray contaminant bacteria.” (21)
The Earth’s atmosphere has three divisions: a lower region called the troposphere,
a middle region called the stratosphere, and an upper region called
the mesosphere. The troposphere has an upper limit of about 18 kilometers
in the tropics, 10 kilometers in temperate latitudes and 7 kilometers in polar
regions. The Earth is not smooth, which causes marked differences in the times
of descent of incoming particles, especially in tall mountains (more below).
Microbes land from space in the mesosphere at a height of about 120 kilometers
above the Earth’s surface where solar heat is constantly mixing the air,
according to Hoyle and Wickramasinghe. (22) The mesosphere protects Earth from
x-rays while the ozone layer, which extends to the top of the stratosphere
(middle layer) protects against ultraviolet radiation. Thus microbes that successfully
reach the stratosphere alive are probably safe from further radiation damage.
Vertical air movements carry water vapor from the Earth’s surface to
the top of the troposphere. “As the temperature falls with increasing
height the water vapour becomes supersaturated, but the temperature is not
usually so low that supersaturated water vapour condenses spontaneously into
ice crystals. Ice requires something to condense around—a nucleus [of
some small particle].” Drum roll: here comes the great Hoyle-Wickramasinghe
hypothesis described elsewhere (23): “Small particles falling from
the stratosphere, and in particular microorganisms falling from above, would
provide such nuclei around which much larger ice crystals could form.
“Because larger ice crystals are less impeded by air resistance than
the original small nuclei, they fall much faster. As the ice crystals descend
into warmer air, they melt and the resulting water droplets may fall to the
surface of the Earth as rain, or only partially evaporate,” with the
resulting smaller droplets remaining as an aerosol (mist) in the air. Unsuspecting
animals, including humans, can inhale such aerosolized droplets containing
microbes from space, posit Hoyle and Wickramasinghe. (24)
Thus parents who admonish their children: “Don’t go out into the
rain or in evening mists or you’ll get ill!” and ancient cultures
that strongly believed comets were harbingers of pestilence and death are “myths” that
may have a basis in fact, according to Wickramasinghe. (25)
Himalayas and China/Southeast Asia as Origins of Exotic Diseases
The Himalayas are the Earth’s tallest mountains, which project upwards
through about one-half of the height of the troposphere at latitudes of about
30 degrees North. The high peaks of this mountain range effectively introduce
easy downward routes at the base of the stratosphere for the descent of incoming
particles.
Hoyle and Wickramasinghe note: “We would thus expect floods of microorganisms
to fall downwind of mountain ranges such as the Himalayas”, affecting
the very large human populations of China and Southeast Asia. (26)
Conclusion
Fred Hoyle and Chandra Wickramasinghe have been geysers of provocative hypotheses
with supporting evidence about the origin and continuity of life on Earth and
throughout the cosmos. The space origin of disease on Earth is one more piece
of their architectonic. Even though they have said they have felt underappreciated
and attacked with vitriol by mainstream scientists over the decades for their
stunningly original contributions, their ideas now permeate science. Many scientists,
especially younger ones, do not giggle about the idea of panspermia or pathogens
from space because relevant concepts, which they take for granted, are no longer
viewed as scientific heresies.
Notes:
- Martin E. France: “Planetary defense: Eliminating the giggle factor”.
National Defense University, 2000. Available at http://stinet.dtic.mil/oai/oai?&verb=getRecord&metadataPrefix=html&identifier=ADA430995;
accessed August 25, 2007.
- See Biot Report #455: “Interstellar Dust Grains as Freeze-Dried Bacterial
Cells: Hoyle and Wickramasinghe’s Fantastic Journey”. Available
at http://www.semp.us/publications/biot.php;
accessed August 25, 2007.
- Fred Hoyle and N.C. Wickramasinghe: Diseases from Space. Sphere
Books, 1981, p. 1.
- SEMP Biot Report #450: “Theory of Panspermia: An Idea that Will Not
Die.” August 7, 2007. Available online at http://www.semp.us/publications/biot_reader.php?BiotID=450;
accessed August 25, 2007.
- Chandra Wickramasinghe: A Journey with Fred Hoyle: The Search for Cosmic
Life. World Scientific, 2005, p. 122.
- Fred Hoyle and Chandra Wickramasinghe: Our Place in the Cosmos: Life
Did Not Begin on Earth—It Arrived from Space and Is Still Arriving.
Phoenix, 1988, p. 2.
- Hoyle in his autobiography speaks to Darwin’s “being accorded
priority in 1859 with the theory that bears his name [Darwin’s theory
of evolution], despite the same theory being stated by Patrick Matthew in
1831, by Charles Naudin in France in 1852, and by Alfred Russel Wallace from
the East Indies in 1855 and 1858. This was done on Darwin’s assurance
that the theory had lain unpublished for many years in his escritoire, despite
there having been no independent witness to that effect.” Source: Fred
Hoyle: Home Is Where the Wind Blows: Chapters from a Cosmologist’s
Life. University Science Books, 1994, p. 272.
- Author Arnold C. Brackman has explored Darwin’s dubious ethics in A
Delicate Arrangement: The Strange Case of Charles Darwin and Alfred Russel
Wallace. Source: Arnold C. Brackman: A Delicate Arrangement:
The Strange Case of Charles Darwin and Alfred Russel Wallace. Times
Books, 1980.
- Dr. Ferdinand Cohn: Bacteria: The Smallest Living Organisms. Translated
by Charles S. Dolley (1881). The Johns Hopkins Press, 1939, p. 36.
- Fred Hoyle and Chandra Wickramasinghe: Our Place in the Cosmos: Life
Did Not Begin on Earth—It Arrived from Space and Is Still Arriving.
Phoenix, 1988, p. 3.
- Chandra Wickramasinghe: A Journey with Fred Hoyle: The Search for Cosmic
Life. World Scientific, 2005, p. 98.
- Ibid, p. 101.
- Louis Weinstein: “Influenza—1918, a revisit? New England
Journal of Medicine, May 6, 1976, Volume 294, p. 1058-1060.
- N.C. Wickramasinghe, M. Wainwright, and J. Nalikar: SARS: A clue to its
origins” The Lancet, May 24, 2003. Volume 361, p. 1832. Available
online at http://www.astrobiology.cf.ac.uk/Lancet.pdf;
accessed August 26, 2007.
- Chandra Wickramasinghe: “Bird flu from the sky? Lessons from 1918.
Source: http://www.astrobiology.cf.ac.uk/newsD.htm;
accessed August 25, 2007.
- Fred Hoyle and Chandra Wickramasinghe: Our Place in the Cosmos: Life
Did Not Begin on Earth—It Arrived from Space and Is Still Arriving.
Phoenix, 1988, p. 95.
- M. Wainwright, N.C. Wickramasinghe, J.V. Narlikar, P. Rajaratnam, and Joy
Perkins: “Confirmation of the presence of viable but non-culturable
bacteria in the stratosphere. International Journal of Astrobiology,
January 2004. Available at http://www.astrobiology.cf.ac.uk/newsD.htm;
accessed August 25, 2007.
- Fred Hoyle and Chandra Wickramasinghe: Our Place in the Cosmos: Life
Did Not Begin on Earth—It Arrived from Space and Is Still Arriving.
Phoenix, 1988, p. 94.
- Ibid, p. 77.
- Ibid, p. 78.
- Ibid, p. 79.
- Ibid, p. 80.
- SEMP Biot Report #455: “Interstellar Dust Grains as Freeze-Dried
Bacterial Cells: Hoyle and Wickramasinghe’s Fantastic Journey”.
Available at http://www.semp.us/publications/biot.php;
accessed August 26, 2007.
- Fred Hoyle and Chandra Wickramasinghe: Our Place in the Cosmos: Life
Did Not Begin on Earth—It Arrived from Space and Is Still Arriving.
Phoenix, 1988, p. 81.
- Chandra Wickramasinghe: A Journey with Fred Hoyle: The Search for Cosmic
Life. World Scientific, 2005, p. 95.
- Ibid, p. 82.