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EVOLUTION
OR DESIGN? YOU BE THE JUDGE Pacific golden plover It doesn’t. The plover flies with other plovers and
changes place in the formation by rotation to lessen wind-drag. Thus the
plover burns less energy and successfully reaches its destination with
milligrams of fuel to spare. How does this creature navigate to Hawaii in the first
place? What manual does it use to calculate how much fuel to take onboard?
Alaska to Hawaii is no garden jaunt. Just one degree off and you’re shark
biscuit. What navigational aids does the bird use? What about side-winds,
head-winds, tail-winds and storms – how are these compensated for even
when the bird is asleep on the wing? Scientists have no idea how the
plover does it but it does. And those chicks left behind in Alaska will
tank themselves up with the required 70g before setting off on their own
88-hour beano, never having done it before. No compass. No GPS.
Not one Michelin Guide between the lot of them. How could this bird have evolved such navigation? Perhaps the Pacific is littered with unknown corpses of millions of transitional plovers, all of whom perished trying to evolve a navigation system for Hawaii. If so, why do we still have Pacific golden plovers?1 Homing pigeon Wasps and hornets Homeowners should not try to remove a wasp or hornet
nest themselves. Hornet colonies reach their peak population in late summer
and can contain 700 large, angry insects. Wasp nests are even larger -
and can contain up to 10,000 insects. The creatures can mobilise the entire
nest to sting in defence of an attack…. Killing a hornet near its nest can also be dangerous.
The insects release a distress pheromone that could trigger an attack
from the whole colony. Traces of the chemical left behind on clothes can
provoke an angry reaction much later in the day.”3
And sure enough, the following day: “A grandfather has died after being attacked by
a swarm of wasps. George Moody, 64, accidentally disturbed a nest as he
walked with a friend in the countryside near his home. He is believed
to have suffered a fatal allergic reaction when he was stung dozens of
times. Wasp experts say that when angry, the insects release pheromones
which encourage other members of the nest to join in an attack. The number
of wasps in each colony increases at the height of summer, reaching as
many as 10,000 per nest.”4 Where does this programming come from? What did the
hornets and wasps use to defend themselves with during the hundreds of
thousands of years it took for this co-ordinated attack strategy to evolve?
“They are the size of a tiny paper aeroplane. And
faced with the underside of a shoe, or the maritime storms of the Indian
Ocean, they are about as robust as one. So the fact that this small, delicate
species of dragonfly commutes an amazing 12,000 miles every year is no
mean feat. According to new research by British naturalist
Charles Anderson, the Pantala flavescens species migrates farther than
any other insect, even though it is barely 5cm long and boasts flimsy
8cm wings…. Incredibly, these bold little insects migrate at an altitude
of 1,000m, double the height of the world's tallest building, the Taipei
101 tower, in the Taiwanese capital. They also cleverly take advantage
of the prevailing winds of the so-called Intertropical Convergence Zone…. They begin their epic journey every August, flying
from southern India, via the Maldives and the Seychelles, to Mozambique
on the east coast of Africa. They complete their voyage in December
- before flying back again. Not a bad summer holiday, if you can
get it.”5 Whales Blue whales feed almost exclusively on krill, a small
shrimp-like crustacean abundant in the oceans. The feeding pattern is
unique. To sustain its daily requirement of around 1.5 million calories,
the blue whale feeds only in areas with maximum krill. The whale dives
down and releases a ring of bubbles which rise and form a ‘net’ for the
krill, which flee from the bubbles into the centre of the ring. The whale
has trapped its prey with nothing but bubbles! The great beast then rises
up through the centre of the ring with its mouth open and gulps down the
krill. And anything else, such as squid, which happens to be caught up
with the prey. The flippers contain blood vessels close to the surface
which act as a cooling system, regulating the inner temperature of this
creature. Blue whale vocalisations are intricate and, according to Richardson
et al, used for perhaps six functions:
If evolution is ongoing, why does the whale seem finished and uniquely suited to its environment? How did it evolve its navigation, feeding and calling skills? What are the odds of all the components of the blue whale coming together by accident? And then the cheetah? And the kangaroo? Sparrows “Evolution teaches that feathers came from scales
because birds came from reptiles. But [feathers have] no muscles, no folicle,
the whole works peels off, there’s no relationship there. If [birds] came
from reptiles, you would expect their bones to be like reptile bones.
They’re nothing like reptile bones. They have little air-pockets through
them. They can even carry air in their bones like lungs. Their bones are
lightweight and made for flying…. A sparrow’s heart is so efficient it
can beat up to 760 beats per minute. It has a very short digestive system
with concentrated digestive juices because you can’t have a whole lot
of weight on the bird or it won’t fly. So it has to eat and then digest
it quickly, and then get rid of its waste. All that had to be figured
out and thought through in the design of the bird, just as in the design
of the firefly and the design of the dragonfly.”7 And the design of the Corvette. Designers can recognise
a designed system in the same way a florist knows a rose. They have a
nose for it. A designed system works a certain way. It’s put together
in a certain order so the different stages of construction logically proceed
to the next step. The other choice is random processes acting over infinity,
and then you have to come up with the transitory bits as proof if you
want to punt it as science. Sparrows lay their eggs so they are unencumbered with
extra weight. Fur begins to fall off the lower chest to expose skin which
the bird holds in contact with the egg. This ‘brooding spot’ develops
great sensitivity during this phase. A communication transmits between
the bird and egg via the brooding spot, so if there is a temperature or
moisture variance, the sparrow can adjust its position to suit the egg.
This is design. You don’t get a sparrow to do this by mistake. Ornithologist
Dr Russ DeFusco gives another example: “Penguins actually incubate eggs on the top of their
feet. They put the egg on their feet so they can keep it off the ice and
snow. And then they fold a patch of belly skin and feathers over the egg
and completely encase it on top of their feet. But it’s a very sophisticated
mechanism for keeping the temperature under direct control for the developing
embryo in the egg.”8 Dr Martin: “How would that evolve? If you did not
have that in the bird with the very first egg the bird laid, that egg
would just sit there and die. This comes back to the irreducible complexity
idea. All the parts have to be there from the very beginning or you don’t
have the creature. If you don’t have the brooding spot, you don’t have
the eggs. If you don’t have the ability to make the egg, you’re not going
to fly.”9 Other examples of animals with irreducibly complex
systems include the elephant, hippo, bee, hummingbird, dog, horse, penguin,
fly, cuttlefish – the list is extensive. On the bottom of rivers and creeks
in western America you will find the lampsillis mussel. This creature
reproduces by pushing some its soft tissue out to form what looks like
a struggling minnow on its shell, complete with ‘eyes’. A certain type
of bass or trout is attracted to the wriggling prey and comes down to
investigate. At precisely the moment the fish lunges for the bait, the
mussel explodes its larvae and eggs into the bass’s mouth, where they
get caught in the gills and attach as parasites. Here they feed on the
blood of the host fish until large enough to detach and fall to the bottom
to grow. How does a mussel evolve that reproductive strategy? How does it know to form the right bait, or even which fish will be interested? Where does it get the information to know how to mimic the movements of that fish’s bait in the first place? And at what point did it learn precisely the right instant to explode its larvae and eggs into the fish’s mouth? Perigrine Falcon and Goshawk “I still think that, to the unprejudiced, the fossil
record of plants is in favour of special creation.... Can you imagine
how an orchid, a duckweed, and a palm have come from the same ancestry,
and have we any evidence for this assumption? The evolutionist must be
prepared with an answer, but I think that most would break down before
an inquisition. Textbooks hoodwink.”11 – Professor
E J H Corner, Professor of Tropical Botany, Cambridge University, England Fishes: “The geological record has so far
provided no evidence as to the origin of the fishes....”12
– JR Norman, Assistant Keeper, Department of Zoology, British Museum of
Natural History, London Amphibians: “...None of the known fishes
is thought to be directly ancestral to the earliest land vertebrates.
Most of them lived after the first amphibians appeared, and those that
came before show no evidence of developing the stout limbs and robs that
characterized the primitive tetrapods... Since the fossil material provides
no evidence of other aspects of the transformation from fish to tetrapod,
palaeontologists have had to speculate how legs and aerial breathing evolved...”13
– Barbara J Stahl, St Anselm’s College, USA Birds: “The [evolutionary] origin of birds
is largely a matter of deduction. There is no fossil evidence of the stages
through which the remarkable change from reptile to bird was achieved.”14
– W E Swinton, British Museum of Natural History, London “The problem [of how feathers evolved from scales]
has been set aside, not for want of interest, but for lack of evidence.
No fossil structure transitional between scale and feather is known, and
recent investigators are unwilling to found a theory on pure speculation
[they are?]. It seems, from the complex construction of feathers, that
their evolution from reptilian scales would have required an immense period
of time and involved a series of intermediate structures. So far, the
fossil record does not bear out that supposition.” – Barbara J Stahl,
St Anselm’s College, USA Mammals: “Each species of mammal-like reptile
that has been found appears suddenly in the fossil record and is not preceded
by the species that is directly ancestral to it...”15
– Tom Kemp, Curator of Zoological Collections at the Oxford University
Museum, England Barbara J Stahl states, “Because of the nature of
the fossil evidence, palaeontologists have been forced to reconstruct
the first two-thirds of mammalian history in great part on the basis of
tooth morphology.” 16 Man: “In spite of recent findings, the time
and place of origin of order primates remains shrouded in mystery.”17
– Elwyn L Simons, Department of Geology and Geophysics, Yale University “Amid the bewildering array of early fossil hominoids,
is there one whose morphology makes it as man’s hominid ancestor? If the
factor of genetic variability is considered, the answer appears to be
no.”18 – Professor Robert B Eckhardt, Human genetics
and Anthropology, Pennsylvania State University, USA “Modern apes, for instance, seem to have sprung
out of nowhere. They have no yesterday, no fossil record. And the true
origin of modern humans – of upright, naked, tool-making, big-brained
beings – is, if we are to be honest with ourselves, an equally mysterious
matter.”19 – Dr Lyall Watson, anthropologist ”The problem with a lot of anthropologists is that they want so much to find a hominid that any scrap of bone becomes a hominid bone.” – Dr Tim White, anthropologist, University of California Berkeley RESOURCES
6 National Marine Fisheries Service (2002). “Endangered Species Act - Section 7 Consultation Biological Opinion”, www.nmfs.noaa.gov/prot_res/ readingrm/ESAsec7/7pr_surtass-2020529.pdf 11 Corner, EJH Contemporary Botanical Thought, Oliver and Boyd, for the Botanical Society of Edinburgh, 1961, p.97 12 Quoted in Greenwood, PH A History of Fishes, British Museum of Natural History, London, 1975, p.343 |
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