Edward Goldsmith
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Scientific superstitions

Or "The cult of randomness and the taboo on teleology". This article is an extended version of a combination of three chapters, 5, 26, and 27, of The Way: An ecological world view by Edward Goldsmith (Themis Books, Totnes, Devon, 1996). It was first published in The Ecologist Vol. 25 No. 5, 1997.

The notion that the ecosphere and everything in it is the product of pure chance is critical to the paradigm of reductionist science. The French biologist and Nobel Laureate, Jacques Monod [1] refers to the mechanism of determining the evolution of life and of culture as a "gigantic lottery" or as "Nature's roulette". "Chance alone" he sees,

"as the source of every innovation, of all creation in the biosphere. Pure chance, absolutely free but blind, is at the very root of the stupendous edifice of evolution This central concept of modern biology is no longer one among other conceivable hypotheses. It is the sole conceivable hypothesis, the only one that squares with observed and tested fact. And nothing warrants the supposition - or the hope - that on this score our position is likely ever to be revised."

Many neo-Darwinists, however, (including Dobjzansky and Julian Huxley, grandson of T. H. Huxley, Darwin's famous disciple) have adopted a less extreme position. They admit that mutations may well be caused by factors that we ignore, but nevertheless in all cases, as Huxley insists [2]

"They are random in relation to evolution. Their effects are not related to the needs of the organism, or to the condition in which it is placed. They occur without reference to their biological uses."

What in effect Huxley is saying is that although something makes a mother feed her child, whatever that something is, it is unconnected with the child's need to be fed by its mother.

Even this is unacceptable. Life processes, in the real world, are not random, even in this less extreme sense of the term. Art styles for instance are not developed at random, but closely reflect the character of the cultures in which they are developed. The clothes people wear are indicative of the image of themselves they wish to communicate to others. The way people walk, eat, light a cigarette, blow their nose, do up their shoelaces - all convey some information as to the personality of the individuals concerned.

Behaviour is in fact, so much more ordered than people think, and consequently so little random, that it is questionable whether people are in fact capable - even if they so desire - of behaving in a random way. This appears to be confirmed by various experiments such as those described by the psychologists W.R. Ramsay and Anne Broadhurst [3] who experimented with a panel of 72 people by asking them to repeat in time to a metronome a series of numbers, 1 to 9, in as random a manner as possible. Significantly they found that:

"...in accordance with other studies on randomness and response in human subjects, the result of this experiment shows that even when subjects try to be random, there is a high degree of stereotype."

It has been suggested that it is possible even to identify a particular individual by his 'random number matrix' and also that a pathological configuration of a matrix might reveal a mental disease. A set of random numbers has actually been used to enable a practitioner to differentiate between brain-damaged patients and normal subjects. The British cybernetician, Stafford Beer [4] also rejects the view that randomness is a natural feature of behaviour in the natural world. He writes,

"There are a random number of tables on my book-shelf; there are computer tapes for producing pseudo-random numbers next door; there is a large electronic machine for generating noise upstairs; down the road there is a roomful of equipment designed to hurl thousands of little metal balls about in a random way; and I use ten-sided dice as paper-weights. The upkeep of this armoury is considerable; think of all the time we spend trying to ensure that these artefacts produce results which are 'genuinely random' - whatever that may mean. This tremendous practical problem of guaranteeing disorderliness ought to be enough to satisfy any systems-man that nothing is more unnatural than chaos"

This is a hideously heretical view, in the eyes of contemporary scientists, but one that is consistent with the thinking of C. H. Waddington, the British geneticist, embryologist and theoretical biologist, Ludwig Von Bertalanffy, the founder of General Systems Theory, Jean Piaget, the Swiss biologist and psychologist, and others who have rejected (implicitly or explicitly) some of the more glaring absurdities of the Paradigm of Modern Reductionist Science and its derivative the Paradigm of neo-Darwinism.

The notion that the world is orderly, and that life processes are purposive was fundamental to the world view of traditional societies throughout the world. This basic principle was used by the natural theologians of the seventeenth and eighteenth centuries as a means of proving the existence of God. However, 19th century science was in search of what was called a 'naturalistic' explanation, that is, an explanation formulated in the language of physics, to the exclusion of anything regarded as 'vitalistic' or 'supernatural'. Teleology therefore had to be avoided at all costs, and it is one of the chief attractions of Darwinism that it appeared to satisfy this condition.

But how do scientists know that a process is random? How do they know it is not part of an orderly pattern that they simply have not been able to identify? The great French naturalist, J. P. Lamarck, who is considered to be the founder of modern biology, is often quoted as stating that "the word randomness only expresses our ignorance of causes." The French physicist, Henri Poincaré, also saw randomness as but a measure of our ignorance, as did the French theoretical biologist Albert Jacquard, and also C. H. Waddington, in particular with regard to the randomness of genetic mutations.

The truth of the matter is that scientists know very little about the incredibly complex and beautiful world we have inherited. As Wendell Berry [5] writes: "We are up against mystery", and

"To call this mystery 'randomness' or 'chance' or a 'fluke' is to take charge of it on behalf of those who do not respect pattern. To call the unknown 'random' is to plant the flag by which to colonize and exploit the known. To call the unknown by its right name, 'mystery', is to suggest that we had better respect the possibility of a larger, unseen pattern that can be damaged or destroyed and, with it, the smaller patterns."

Recent studies have tended to confirm this view. Biologist John Cairns and his colleagues at Harvard University have conducted studies that suggest that mutations are not random; but are on the contrary, highly adaptive. Cairns's studies were, at first, dismissed by the scientific establishment; however, Barry Hall of Rochester University, has now come up with similar results. He has found that certain mutations in bacteria, occur more often when they are useful to the bacteria, than when they are not. Cairns refers to such mutations as "directed mutations" while Hall refers to them as "Cairnsian mutations" - in honour of their original discoverer.

There is every reason to doubt too the concept of 'genetic drift' which has been postulated to explain evolutionary changes that do not appear to have been "selected". More and more people are coming to regard this concept - which is far less in use today than it was twenty years ago - as but a convenient device for masking our ignorance of the role of such changes.

The US Geological Survey has until recently also insisted that earthquakes occur randomly. However, according to Ruth Flanagan [6], the US Geological Survey is having second thoughts. Ruth Flanagan notes all sorts of factors that are increasingly associated with the occurrence of earthquakes.

Chemical secretions by bacteria, as Elizabeth Pennisi notes, have been dismissed as "uninteresting by-products of metabolism" in other words waste or, she might have said, randomness. It is increasingly realized that these chemicals are secreted as part of an elaborate communication system between microbes that enable them, among other things, to form microbal societies. If our scientists have not realized this before, it is that bacterial communication has never up till now been properly studied. It has required the development of more sophisticated methods for growing and studying bacteria for it to be possible.

It was also thought for a long time that the genome was a random arrangement ('bean-bag') of chromosomes and genes. It is now generally realized that it is on the contrary highly organized. Complexity is also amazingly enough still seen by modern ecologists as random complexity, a complex ecosystem being made up of a large number of living things without any consideration for whether they contribute to, or, on the contrary, impair the integrity or stability of the ecosystem as a whole. Thus the introduction of alien pests, like the rabbit into Australia, and the Dutch Elm bark beetle into Europe, are naively seen as increasing the complexity of Australian and European ecosystems respectively.

Indeed, more and more processes which originally appeared or still appear to be random, are found, or, I am sure, soon will be found upon closer examination, to be highly functional and indeed purposive. In the case of evolution, one does not need experimental "evidence" for rejecting the idea that it is based on random mutations. We know today that single gene mutations can only determine extremely superficial changes. Significant changes can only be brought about by changes occurring to a whole constellation of associated genes (polygeny). This means that for a "functional unit to make an adapted change" as Rupert Riedl [7] notes, "requires not just one happy accident, but an accumulation of happy accidents."

Does this seem likely? Waddington [8] did not believe it in spite of his insistence on remaining within the neo-Darwinian fold. He admitted in the talk he gave at Arthur Koestler's famous Ansbach Symposium, that to suggest that evolution was based on selection from random mutations was

"like suggesting that if we went on throwing bricks together into heaps, we should eventually be able to choose ourselves the most desirable house."

Murray Eden rejects the thesis on the grounds of its sheer mathematical improbability:

"It is as unlikely as it is that a child arranging at random a printer's supply of letters would compose the first 20 lines of Virgil's Aeneid."

The philosopher of Science W. M. Elsasser [9] feels the same way. There has simply not been enough time available since life first appeared on our planet for this crude process to have given rise to the world of living things as we know it today. It has been said that, with sufficient time at their disposal, a batch of monkeys, strumming on typewriters, could eventually compose and type out all of Shakespeare's sonnets.

But as Elsasser points out, the syllables in just the first lines of these sonnets can be combined in 10,143 ways, while the total number of seconds that have elapsed during the existence of our galaxy is at the most 1018. Lecomte du Noüy notes that a sphere of matter, in which even the simplest protein molecule (made up of only 2,000 atoms of only two different kinds) can be formed by the fortuitous coming together of the constituents, would have to have a radius of 1,082 light years which far exceeds that of the universe.

Even Francis Crick, who earned the Nobel Prize together with James Watson for having worked out the genetic code, realizes that the 3,000 million years since life began on our planet is far too short a period for the living world to have evolved by the process of selection from random mutations. He suggests the evolutionary process was initiated on some distant planet whose enlightened inhabitants generously dispatched to us various ancestral bacteria in a rocket. After that it was plain sailing - just a matter of time for selection to do its job and for more and more complex forms of life to evolve. It clearly does not say much for Darwin's theory if, to make it work, we have first to postulate a science fiction scenario of this sort.

A less biased student of evolution, one might argue, would surely consider the possibility that the mechanism proposed by Darwin was simply wrong - that there is no way in which selection from random mutations could conceivably be the prime mechanism of evolutionary change;. Why then do Crick and the other leading scientists of today continue to insist on the absurd notion of the randomness of life processes? Why indeed has it actually been raised to the elated status of "the central concept of modern biology". I shall suggest some possible answers.

To begin with, randomness was postulated as an argument against teleology, which was seen as ushering in all sorts of unacceptable supernatural principles, such as God, or various forms of vitalism. Also the ideas of order and teleology were associated with the status quo, i.e. with the interests of the landed classes, rather than with those of the growing industrial classes.

The postulate of randomness was also essential in order to rationalize the reductionist nature of modern science. If the ecosphere displays order, worse still, if the whole evolutionary process were seen as a single co-ordinated strategy, involving all life processes at all levels of organization, then the reductionist approach of modern science would make no sense whatsoever.

The postulate of randomness is also required to justify the fashionable highly obscurantist statistical method, which is in turn required to rationalize other key features of the paradigm of reductionist science, reductionism itself for instance, and the reductionist principle of causation.

Also, it is impossible to justify the Promethean enterprise to which our industrial society is committed, and which involves systematically transforming the ecosphere so that it may best satisfy short term commercial interests, if it is seen to be organized to achieve a grand overall project of its own. By seeing the ecosphere as random, on the other hand, it is possible to make out that what order there is in the world in which we live, has been created by science, technology and industry, rather than by God or the evolutionary process.

As J. D. Bernal writes [10]:

"The cardinal tendency of progress is the replacement of an indifferent chance environment by a deliberately created one."

The insistence by mainstream scientists to maintain the principle of the randomness of life processes in the face of all the evidence, both empirical and theoretical, to the contrary provides an excellent illustration of Thomas Kuhn's thesis (one that is now accepted by just about all our serious philosophers of science) that scientific propositions are not accepted because they can be verified or falsified empirically, as reductionist scientists still seem to insist, but because they are consistent with the paradigm of reductionist science and the world view of modernism which it so faithfully reflects, and which, by the same token serves to rationalize and hence legitimize them.

Why does Crick not accept this, along with that most eminent of French zoologists P. P. Grassé, that

"the idea that living things have been brought into being by purely random forces is a gratuitous statement, one which we must regard as wrong and as irreconcilable with the facts."

Life processes are purposive

After all, the evidence for the goal-directedness or purposefulness of life processes at every level of organization within the hierarchy of the ecosphere, is so great that its denial to normal people seems quite inconceivable.

Thus it seems absurd to deny that the evolution of gills and fins by fish is purposeful to breathing and moving about in their aquatic environment, or that the development of mammary glands by the females of all species of mammals is purposeful to feeding their babies or that the human milk provided in this way is designed to satisfy the nutritional needs of their young in the first one or two years of their lives.

To Sir Charles Sherrington, [11] it seemed obvious that the embryological process, whereby "a pin's head ball of cells in the course of so many weeks becomes a child" is purposive. Joseph Barcroft [12] points to:

"the levers laid down in gristle, becoming bone when wanted for the heavier pull of muscle which will clothe them. Lungs, solid glands, yet arranged to hollow out at a few minutes' notice when the necessary air shall enter. Limb-buds, futile at their appearing and yet deliberately appearing, in order to become limbs in readiness for existence where they will be all-important."

Barcroft [13] is particularly impressed by the development of embryonic organs, useless at the time to their possessor, but which will be indispensable later on during the course of its development:

"Organs of skin, ear, eye, nose, tongue, superfluous all of them in the watery dark where formed, yet each unhaltingly preparing to enter a daylit, airy, object-full manifold world which they will be wanted to report on."

Purposiveness is also evident in physiology. As Gavin De Beer [14] notes:

"The structure of an animal shows a number of exquisitely delicate adjustments; the splinters inside a bone are situated exactly where they are required to withstand the pressure to which the bone is subjected; the fibres of a tendon lie accurately along the line of strain between a muscle and the bone to which it is attached; centres of nerve cells in the brain are situated close to the ends of the nerve fibres, from which they habitually receive impulses."

Purposiveness is equally apparent in animal behaviour. As Bierens de Haan [15] writes:

"the weaving of the web by the spider is purposeful for the catching of insects, and the collecting and storing of caterpillars by the wasp purposeful for the nourishing of its future larva, are facts that are so self-evident that it is not necessary further to elucidate them."

If life processes achieve their purpose it is because they are under control, but they could not be controlled in the first place unless they had a purpose to achieve. Control serves to assure that life processes achieve their pre-existing purpose. This is clear if we consider that a basic ingredient of control is 'negative feedback' and which is totally useless to a non-purposive system.

An essential constituent of an animal's control mechanism is perception, and perception is essentially purposive. As Keith Oatley [16] writes, "the way we see is in terms of our human purpose in the environment". Or again what we see

"depends on our particular purpose at the time, what we are trying to do, what aspect of the thing we are seeing that is relevant to what we are trying to achieve."

What is more, it is not just in terms of a short-term purpose that we see things but ultimately in terms of a long-term strategic purpose, for short-term tactical purposes are meaningless except when seen in the context of the long term strategy of which they are part, while at the same time, our individual strategic purpose is meaningless outside the overall purpose of our society, our ecosystem and the ecosphere as a whole.

The truth of the matter is that purposivness (conscious or unconscious) is an essential feature of all life processes, at all levels of the ecosphere. Things cannot be organized for random reasons. As Pittendrigh [17] notes, order, or organization without purpose,

"is an absurdity ... there is no such thing as organization in any absolute sense pure and simple. Organization is always relative, and relative to an end. (Thus) the organization of an army is relative to the end of defeating an enemy; and doing so, moreover, in a particular environment or terrain, weapons and political system. A room may be organized with respect to relaxation. Certainly, neither a room nor any army can be organized with respect to nothing."

Thus, if one states that living systems are organized, then one must be ready to face the question 'With respect to what are they organized?' As von Bertalanffy [18] notes,

"The notion of 'organ', of visual, auditory, or sexual organ, already involves the notion that this is a 'tool' for something."

Animals will eat and drink and breathe and reproduce because these processes are as much part of them as are the organs that assure these functions. Indeed, there are no such things as animals that do not eat and drink, breathe and reproduce, except as photographs, pictures, concepts and words, nor are there such processes as eating, drinking, breathing and reproducing taken apart from the organisms involved This must follow from the fact that living things are spatio-temporal systems, which means that the order they display is spatio-temporal order and this necessarily implies purposiveness.

As Herbert Mueller puts it,

"Purpose is not imported into nature, and need not be puzzled over as a strange or divine something else that gets inside and makes life go ... it is simply implicit in the fact of biological organization."

Real ecology has to be teleological

The teleological explanation of life processes is an explanation in terms of its ability to achieve its goal or purpose - Aristotle's "final cause". rather than its antecedent cause which alone is accepted by the scientific community. Teleology, the Swedish Nobel winning neurophysiologist, Ragnar Granit [19] tells us, is required to answer the question of why things happen, without knowing which, it is very difficult to answer the question of how things happen.

Granit [20] points this out with reference to the discovery of how the eye adapts to light and darkness.

"when rods and cones were discovered in the vertebrate retina, had it not become evident that rods dominated in retinas of the night animals and cones in those of daylight animals this discovery would have remained an observation of but limited consequence. Instead, understanding of its meaning (why) made it a cornerstone in a large body of biological research dealing with the adaptation of the eye to light and darkness, rod vision and cone vision, and the rod-free central fovea of the human retina."

The truth is that rods and cones, however brilliantly they are described, only acquire meaning once one knows what they are for. In other words it is only once one has established what is the goal of any organism or natural system that one is in a position to seek out how it sets out to achieve this goal. This is exactly how James Lovelock [21] developed his famous Gaia thesis:

"To examine the earth cybernetically, is to ask the question 'What is the function of each gas in the air or of each component of the sea?' Outside the context of Gaia, such a question would be taken as circular and illogical, but from within it is no more illogical than asking: "What is the function of the haemoglobin or of the insulin in the blood? We have postulated a cybernetic system; therefore, it is reasonable to question the function of the component parts."

Thus, Lovelock starts off by pointing to the extraordinary constancy of the chemical composition of the ecosphere (or Gaia) - that of the oxygen and carbon dioxide content of the atmosphere, for instance, and of the salt content of the sea. He then searches for mechanisms that could assure this constancy. Ralph Gerard [22], the Chicago University holistic biologist notes how the physiologist proceeds in precisely the same way:

"The physiologist's whole life is concerned with problems of organic purpose, though he rarely likes to say it, particularly in public. We see purposeful behaviour all through the body; it is the only way it makes sense to us. And then we look for the mechanisms to account for it."

In terms of the paradigm of reductionist science, this method of building up knowledge is totally illegitimate. To accuse a scientist of using a teleological argument is to accuse him of being unscientific, indeed, of being a veritable charlatan. Very few scientists would be willing to take that risk. Even James Lovelock does not admit that his argument is teleological. The Daisy World model, which he developed with Andrew Watson, of the Marine Biological Association at Plymouth, to which he attaches so much importance, is primarily designed to show that a cybernetic process need not be teleological.

However, it is but a rudimentary and indeed hypothetical cybernetic process and it would prove very much more difficult to build a realistic model serving to demonstrate that the very much more sophisticated multi-stage cybernetic behaviour of complex forms of life in the real world, such as the embryological process for instance, is non-teleological.

Nevertheless, Lovelock realizes the absurdity of the scientific taboo on teleological method:

"Teleological explanations in academe are a sin against the holy spirit of scientific rationality; they deny the objectivity of nature."

The Nobel Laureate, Sir Peter Medawar, felt the same way:

"The attitude of biologists to teleology is like that of the pious towards a source of temptation which they are unsure of their ability to resist."

So did Van Bruck (the elder) [23]. Teleology for him was

"like the kind of woman people do not want to be seen with in the street, yet are prepared to tender their love to in secret."

Scientists will go to the most extraordinary lengths to make it appear that the statements they make are non-teleological. One ruse is to deny the purposiveness of life processes altogether and to argue that nature only appears purposeful. Julian Huxley [24] tells us that

"at first sight the biological sector seems full of purpose. Organisms are built as if in purposeful pursuit of a conscious aim. But the truth lies in those two words 'as if'. As the genius Darwin showed, the purpose is only an apparent one".

He adds that

"No conscious seizing of opportuities is here meant, (by the use of the word purpose) nor even an unconscious sensing of an outcome. The word is only a convenient label for these tendencies in evolution; that what can happen usually does happen; changes occur as they may and not as would be hypothetically best; and the course of evolution follows opportunity rather than plan."

Of course the opposite is true. 'Opportunism' is itself a teleological concept. An adaptive individual does not seize any opportunity to bring about a random change, but clearly the one that best suits its purposes - the one that it judges to be 'hypothetically best' - for itself and for the hierarchy of natural systems of which it is part.

More devious expedients are resorted to by scientists in order to mask the teleological nature of their arguments. One device - a purely linguistic one - is to formulate an obviously teleological statement in such a way that it no longer appears teleological. Merrill [25] notes how throughout modern biological literature, we find

"a great array of teleological jargon bearing witness, as it were, to the homeorhetic tendency of living systems (the tendency of a living system to keep to that path that will enable them to achieve stability or homeostasis). Biologists are always talking of one thing occurring, 'for the purpose of something' or, 'in order that something might happen' or, 'serving the function of something' and so on."

However, philosophers still go to great lengths to show that these statements can be translated into a non-teleological form. This often leads them "into a morass of circumlocutions." Thus, biologists, as Granit [26] notes, have been "prepared to say a turtle came ashore and laid its eggs", but not that "It came ashore to lay its eggs".

The cybernetician, Peter Calow [27] also shows how biologists will studiously avoid making the teleological statement that "the function of the vertebrate heart is to pump blood". Instead it is translated into non-teleological language simply by saying that "the heart is a necessary condition for the circulation of blood in vertebrates". However, whether mainstream scientists like it or not, the heart is an organ and, like all organs, it has a function or a purpose, [28] in this case to pump blood, nor did it come into being by accident (i.e. for random reasons) but in order to do just that.

Possibly the latest device used to avoid facing the essential teleological nature of life processes is to attribute their directiveness to the action of environmental "attractors". This notion is used, for instance, by my friend Brian Goodwin in his extremely interesting book How the Leopard Changed its Spots. He suggests the idea "that natural processes follow paths that decrease energy or some similar function, suggesting that what comes naturally is a path of least effort or action". [29] He sees this as an alternative to the neo-Darwinian view, which he has always opposed, that biological and physical change occurs as a result of struggle and effort.

This makes considerable sense to me, however I see natural systems as very dynamic and creative and perfectly capable of creating those specific conditions in which energy use will be reduced to a minimum. That is exactly what happens when a pioneer ecosystem develops into a climax ecosystem - one in which stability is maximized so that the further use of energy and resources is limited to the minimum - that required for maintenance and repair.

This obviously purposeful behaviour can only seriously be seen as part of the dynamic of the ecosystem itself. In attributing it to the action of environmental attractors Goodwin lays himself open to some of the major objections made in this article to the idea that it is determined by natural selection. (see page 19 in particular)

Another device resorted to by mainstream scientists is to provide a purely mechanistic explanation of purpose. The inspiration came from the machine with feedback of the sort with which cyberneticians are largely concerned. These machines are programmed in such a way that they seek to achieve a goal. However, such goal-seeking behaviour is not deemed teleological in the sense that it is not seen as tending towards a "final cause", hence it does not require some sort of supernatural explanation. The principle involved is reconcilable with that of causality, reductionism, statistical method and of course, mechanomorphism. Indeed, as Henri Atlan [30] puts it,

"this new type of goal directedness is acceptable in that it is not derived from theological idealism, but from neo-mechanism."

i.e. from a scientifically acceptable metaphysics rather than from a scientifically unacceptable metaphysics. Such purposefulness is referred to as 'teleonomy' a term first used by the biologist Colin Pittendrigh, and later taken up by Julian Huxley, the theoretical biologist Ernst Mayr, the French molecular biologist and Nobel Laureate, Jacques Monod, C. H. Waddington, and other leading biologists, and has thereby become quite respectable.

The acceptance of teleonomy does enable us to ask the question "why" rather than "how" but only within a limited sphere, that of the functioning of a machine. It may indeed tell us what is the immediate goal of a natural process, but it tells us nothing of the ultimate goal to which its achievement contributes. It even implies that there is no such ultimate goal.

The development of molecular biology culminating in the decoding of the genetic code by Crick and his colleague Watson has further increased the credibility of the notion of teleonomy. Living things, molecular biologists maintain, give the impression of tending towards a goal or final cause, but this is only because they have been programmed like machines to move in this direction. Instead of a computer programme, as it has been said, the deus ex-machina is now the genetic programme.

However, no life process can be understood merely in terms of the information with which it has been programmed, for it is under the control of the larger systems of which it is part and that provide it with the environment with which it is constantly interacting and from which it derives much of the information required for its development. Thus a developing embryo acquires information during the entire embryological process; first from the cytoplasm, then from the womb and later, when the child is born, from its family, and as it grows up, from the community and ecosystem of which it is part.

As already mentioned, one of the main attractions of neo-Darwinism is that it appears to be non-teleological. That this is an illusion is clear from the fact that just about all the basic concepts of neo-Darwinism are highly teleological. Take competition; it implies competition for something. One cannot compete for nothing. Since competition for Darwinists, is intimately linked with the notion of the 'survival of the fittest' it means competition to survive.

But why should living things want to survive? We assume that they do, but this is a gratuitous assumption. Stones do not want to survive particularly. At least they make no visible effort to do so. Lamp bulbs, nylon stockings and many other consumer products are designed specifically not to survive, since it is 'economic' to build into them 'planned obsolescence'.

The concept of natural selection, another key concept of neo-Darwinism is equally teleological, a point made over and over again by the eminent French zoologist P. P. Grassé. [31]

"There cannot be selection without purpose (intention) ... by explaining the evolution of the fittest in terms of selection, they (the neo-Darwinists) are endowing all living things with an inherent goal, and goal-directedness becomes the supreme law of the individual, with the population and with the species."

In reality, the concept of natural selection is of use to neo-Darwinists largely because it provides a means of delegating surreptitiously, and it is hoped imperceptibly, to a vague and undefined environment the teleological functions that natural systems alone are capable of fulfilling adaptively. In this way the latters' own behaviour can be made out to be random. It is, of course, a desperately feeble subterfuge, especially as environment is itself made up of other natural systems,the purposiveness of whose behaviour no one seems to question.

Ecology has to be teleological, for purposiveness is possibly the most essential feature of the behaviour of natural systems, including ecosystems. It is only in terms of a teleological ecology that we can understand the role of natural systems within the whole Gaian hierarchy, in particular their fundamentally homeotelic or whole-maintaining character [32], which above all makes possible the essential order, integrity and stability of the living world.

References

1. Jacques Monod, 1970, Chance and Necessity, London, p.121.
2. Huxley, J. S., 1953, Evolution in Action, Harper Bros, New York.
3. Anne Broadhurst and W. R. Ramsey, 1968, 'The non randomness of attempts at random responses: relationships with personality variables in psychiatric disorders', in The British Journal of Psychology Vol. 59, pp.300-304.
4. Stafford Beer, 1969, 'Beyond the twilight arch', General Systems Yearbook Vol. V, p.12.
5. Wendell Berry, Letter to Wes Jackson, 15 July 1982.
6. Ruth Flanagan: Here comes the big one, New Scientist, 20 July 1996.
7. Rupert Riedl, 1978, Order in Living Organisms, John Wiley, New York.
8. C. H. Waddington, 'The theory of evolution today', in Koestler and Smythies eds., 1972, Beyond Reductionism, p.173.
9. W. M. Elsasser, quoted by Krishna Chaitanya, 1975, The Biology of Freedom, Somaiya Publications, Bombay, p. 132.
10. J. D. Bernal, 1969, The World, The Flesh and The Devil, Indiana University Press, Bloomington, p. 66.
11. Sir Charles Sherrington, 1940, Man on his Nature, The Gifford Lectures, 1937-8, Cambridge University Press, Cambridge, p.104.
12. Joseph Barcroft, 1938, The Brain and its Environment, Yale University Press, New Haven, pp.73-81.
13. Ibid.
14. Sir Gavin de Beer, 1958, Embryos and Ancestors, Clarendon Press, Oxford, p.16.
15. J. A. Bierens de Haan, 1966, Animal Psychology, Hutchinson's University Library, London, p.59.
16. Keith Oatley, 1978, Perceptions and Representations, Methuen, London, P.166.
17. Colin Pittendrigh, 1958, 'Adaptations, natural selection and behaviour', in Roe and Simpson eds., Evolution and Behaviour, p.394.
18. Ludwig von Bertalanffy, 1962, (original edition 1933), Modern Theories of Development: An Introduction to Theoretical Biology, trans. J. H. Woodger, Harper Torchbook, New York, p. 9.
19. Ragnar Granit, 1977, The Purposive Brain, MIT Press, Cambridge, Mass., p.7.
20. Ibid, pp.18-19.
21. James E. Lovelock, 'Gaia: A Model for Planetary and Cellular Dynamics', in Thompson, William Irwin ed., 1987, Gaia: A Way of Knowing, Political Implications as a New Biology, p. 87.
22. Ralph Gerard, 1940, 'The biological basis of ethics', Philosophy of Science, 9.92, pp.161-173.
23. Krishna Chaitanya, 1972, The Physics and Chemistry of Freedom, Somaiya Publications, Bombay.
24. Julian Huxley, 1953, Evolution in Action, Harper Bros,New York.
25. David Merrell, 1985, Ecological Genetics, Longman, London, pp. 18-19.
26. Ragnar Granit, 1977, The Purposive Brain, MIT Press, Cambridge, Mass.
27. Peter Calow, 1976, Biological Machines: A Cybernetic Approach to Life, Edward Arnold, London, pp. 13-14.
28. Ibid pp. 13-14.
29. Brian Goodwin, 1994, How the Leopard Changed its Spots, Weidenfeld and Nicholson, London, p.52 and pp 157-159
30. Henri Atlan, 1979, Entre le Cristal et la Fumée, Editions du Seuil, Paris, p.21.
31. Pierre P. Grassé, 1973, L'Evolution du Vivant, Albin Michel, Paris, P.216.
32. On the subject of 'homeotely' see:- Edward Goldsmith 1996 - The Way: An ecological world view, Themis Books, Totnes, Chapter 41, pp. 258-264.
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