Archive for July, 2002

Welcome

Monday, July 8th, 2002

Arthur Young (1905 – 1995), inventor of the Bell Helicopter, cosmologist, philosopher and author of The Reflexive Universe  and The Geometry of Meaning, addressed issues in physics, mathematics, consciousness and evolution.

I have been a student of Young’s for the past 25 years. In The Reflexive Universe, he presents his formulation of the Theory of Process which explains the evolution of Universe through a series of 7 discrete jumps which produce the stages of process we know by the names: Light,  Particles,  Atoms, Molecules,  Plants, Animals and Humans.

This essay like many of Young’s writings is both interesting and thought provoking.


Has There Ever Been a Paradigm Shift?

Arthur M. Young

Thomas Kuhn gave us an interesting and provocative book in his Nature of Scientific Revolutions, in which he described science, under the stimulus of new discoveries, as making a radical change in its philosophy or basic assumptions.

The idea is appealing and it did seem that there were several such shifts, beginning with the Copernican “revolution,” in which, supported by the labors of Tycho Brahe, Galileo, Kepler, and Newton, it was realized that the earth revolved around the sun and not the contrary.

But as I’ve elsewhere shown, this was rather the beginning of Western science, the emphasis on experiment and fact as the basis for theory, instead of authority.

However, it was assumed by Kuhn, and we all agreed, that Planck’s discovery of the fact that light is radiated in quanta of action all of the same “size,” rather than as energy, created a new paradigm. This discovery was the first clue to the true nature of light, previously thought to be waves in an ether. These waves were thought to spread out in all directions and diminish as the square of the distance. The change was revolutionary, and dispensed with the need for a medium (the ether) to carry the waves (much as sound is carried by waves in the air). It introduced quantum physics, and the quantum was found to account for other enigmas.

One especially was that, according to classical physics, the revolving electron should radiate and thus lose energy and fall into the nucleus. Bohr realized that since to radiate it had to do so in quanta, the electron could not radiate unless it changed to an orbit having different angular momentum. (The quantum is a unit of angular momentum; it can have any amount of energy, always associated with a period of time such that the energy multiplied by the time is a constant.)

This contribution of Bohr was accepted by the scientific community to apply to quantum phenomena, but it did not occur to anyone to question the classical view. This I have done recently in my short essay “Confusion in Science,” where I can find no basis, theoretical or empirical, for the concept that an accelerating electron radiates energy. Apparently this concept was based on a confusion between accelerating and causing acceleration. Thus the driver of a vehicle says he “accelerates” it — a figure of speech that is permissible because the driver does cause the acceleration to occur. But it is the engine that accelerates the car, and a scientific account should distinguish controlling acceleration by starting and stopping from acceleration itself. Acceleration is the second derivative; change of accleration is the third derivative, much as acceleration is change of velocity, and science is based on these distinctions. The scientist might say the control by the driver is a human option and outside of science, but the fact that a guided missile not only controls its acceleration but is guided to do so by the moving target makes it imperative that the third derivative be recognized.

So there is no support for the classical view of radiation, and the fact that the quantum of action made this view obsolete was ignored. Instead it was decided that the laws of classical physics and the laws of quantum physics, since they differed in these two domains, required a division of science into classical and quantum.

There was little justification for this split. Now it is true that thermodynamics — which, since it deals with billions of molecules, each undergoing random motion, has to be predicted by probabilities, whereas each molecule is subject to exact laws — does justify a distinction. This is not the case with radiation. All radiation, quantum and classical, originates in quanta.

But the fact that the classical view was retained shows that despite quantum physics there was no paradigm shift. This is borne out by other aspects of quantum physics.

(1) One such is that the nature of light was still not understood. The classical view that it was waves in an ether gave light some objectivity. It was the notion of something at least semi-material, and it did not occur to scientists that since the quantum of action, or photon of light, was without rest mass, without charge or other material properties, outside of time (clocks stop at the speed of light), and indifferent to space because a photon from Sirius retained the same energy it has when leaving Sirius, that the quantum had no objective existence.

The complete confirmation of the non-objectivity is that no two persons can see the same photon. Its detection on a photographic plate annihilates the photon, so there is nothing left to predict. Even in the photoelectric effect, in which a part of the photon’s energy is annihilated, the part that remains is a new photon with its own complete uncertainty.

But all such was ignored. Science retained its basic credo, that the world is exclusively objective. This again shows that there has been no paradigm shift.

(2) Another piece of evidence that is of special interest because it came before quantum physics was the use in relativity of an event to replace the previous notion of a point. An event occurs in time, so it includes the so-called fourth dimension.

The past and the future are the same — time is symmetrical; nothing happens. Thus the Civil War could be called an event, and relativity would so treat it. But the Civil War was also a change of state. The nation was not the same after it.

 

Thus relativity had to ignore history, whereas the quantum of action always produces a change of state. It can cause the atom to become an ion and lead to its forming a chemical compound; it may cause a change in the retina of the eye, producing vision. It is like a small spark which can ignite a forest fire.

Science was so impressed by relativity that it preferred to think of time as similar to space and to ignore the asymmetry implied by change of state. The paradigm shift of quantum theory was ignored. Classical science depended on forces between “billiard balls,” whereas quantum physics showed that the quantum has more resemblance to a human decision or a message than to billiard balls bumping into one another.

If the reader experiences a shock that I’ve again introduced an anthropomorphic or human reference, I cannot withdraw it; it is part of the even larger significance of the paradigm shift that should have occurred with quantum physics.

Before leaving relativity I could also add that the measures that science can correctly say are objective, velocity and position, are set aside by relativity as not significant, emphasis being placed on acceleration, which is considered invariant and therefore important. Another invariant, recognized by Einstein, Bridgeman, and Eddington, but not made use of, is rotation — a very important part of the paradigm shift that should have occurred, which we will get to later.

(3) I now get to the most difficult part of my thesis. The considerations I’ve described might be admitted by some readers, but they do not convey the magnitude and significance of the paradigm shift I think is overdue, so I will have to resort to a rather crude example.

Suppose I were to present a plate of food to a child to eat, and the child were to turn the plate upside down, spilling the contents about, and proceed to separate it into different ingredients — to count the peas, etc. We have been given this marvelous world to experience, but science prefers to analyze it — a worthy undertaking, but it becomes absurd if the food is not eaten. Analysis may be food for science, but this doesn’t mean that the eating of the food should not be included in the theory.

So this is my main thesis. Science describes and analyzes the world, finds out the laws of its behavior, but it never occurs to theoretical science that the law of cause and effect can be applied and used for our own benefit — communication, transportation, all machines — using the laws of nature to increase our freedom.

This cannot be dismissed as mere application and anthropomorphic, because all life does the same. Plants control their metabolism to achieve growth and reproduction; animals learn mobility and are able to achieve short-term goals (including some long-term goals such as migration). This is not just technology; it is the basis of life.

©1996 The Estate of Arthur M. Young


Arthur Young, the inventor of the Bell Helicopter

Arthur Young, the scientist

The Reflexive Universe

Theory of Process

Welcome

Sunday, July 7th, 2002

This is reposted in followup to my essay on Interdependence. It seems especially appropriate in view of the increasing conflict in our present world.


Getting Help

Timothy Wilken, MD

INTERdependence is the human condition.

Once we acknowledge our INTERdependence and accept our dependence on others, then there are only three ways that we can get the help we need to meet our needs.

1) We can force others to give us help — This is adversary help.

2) We can pay others to give us help —This is neutral help.

3) Or, we can trust others to give us help — This is synergic help.

We will examine each of these three ways in detail. Today we will examine:

Adversary help

This is help obtained with coercion — force or fraud. The givers of help are losing. When you force others to give you help you, they do the least they possibly can. Because the helper is hurt, adversary help is always of a low quality.

Adversary relationships are hurting and negative experiences. The giver of help experiences a loss. He is less after helping you than before. When you force others to help you, it natural that they do the least they possibly can and stop helping the moment they don’t feel afraid.

Adversary INTERdependence — Conflict

Sometimes I force others to give me help me, and sometimes others force me to give them help.

Slavery, indentured service, tenant farming, and child labor are examples of adversary help. The criminal makes you help him, when he steals your property. The government makes you help it, when it forces you to pay taxes. You are being forced to help others anytime you are given an ultimatum.

Adversary relationship originates on earth in the animal world. Earth supplies limited space for the animals. Space is finite. Good space is even more finite. It is very limited. There is only so much good water, so much good grazing land, so much good shelter, and so much good potential food. There is not enough to go around. The space-binders must compete for this limited amount of good space. They compete adversarily. They compete by fighting and flighting. They compete by attacking and killing other space-binders. They compete by devouring the energy-binders.

Animal survival depends entirely on finding others to eat. The herbivores depend on finding plants to eat. The carnivores depend on finding other animals to eat. The animals inability to utilize sunlight to synthesize organic tissue means they must eat organic tissue. Animals survive by eating either plants or animals. Animals are completely dependent on other for survival. This fact makes animals the dependent class of life — dependent on other.

Imagine a fox chasing a rabbit, if the fox is quick enough, it will win a meal, at the expense of the rabbit who loses its life. On the other hand, if the rabbit is quicker, the fox loses a meal, and the rabbit wins its life. The animals live in an adversary world of losers and winners. This is a world of fighting and flighting — of pain and dying. To win in this world someone must lose. Winning is always at the cost of another.All animals, from the smallest insect to the largest whale are struggling to avoid losing — struggling to avoid being hurt.

CONFLICT —def—> The struggle to avoid loss — the struggle to avoid being hurt.

The animals must fight and flee to stay alive, and they do. Always ready at a moments notice to go tooth and nail to avoid losing — to avoid death. Losers/winners is the harshest of games. Winning is always at the cost of another’s life.

The loser tends to resist with all of its might occasionally prevailing by killing or wounding its attacker. So both parties can lose, turning the game — losers/winners into losers/losers.

If we analyze adversary relationships, we discover that individuals are less after the relationship. (1+1) < 2. In the animal world where the loser forfeits its life (1+1) = 1. Or in the end game of losers/losers, both adversaries may die in battle, then (1+1) = 0.

Adversary relationships are hurtful. The parties in these relationships experience loss. They struggle to avoid the loss — they conflict. In an adversary relationship, one individual plus another individual are less after the relationship. In other words (1+1) < 2, and often much less than two. Adversary relationships are marked by high conflict, low effectiveness and poor productivity. Now lets examine how the natural life tensegrity of Needs and Actions would operate in adversary INTERdependence.

Coercion Tensegrity — a prey-predator tensegrity

When we obtain help from others by force or coercion, we are entering into the Prey-Predator Tensegrity. Recall I discussed in an earlier passage. The prey is continuously pulling predators towards it. It must be continuously on alert ready to fight or flee. The predator is only discontinuously pushing towards the prey in the hunt. So we see a balance between the the continuously pulling prey and the discontinuously pushing predator.

Like all tensegrities, the larger it is the more stable it is. In nature, we find that the more animals within a prey-predator group the more stable the population.

Recall the natural Needs-Action Tensegrity of Life. Needs are continuously pulling on me take action to meet them.

Needs — Actions

Continuous-Pull — Discontinuous-Push

Passive — Active

Needs are passive. They are continuously needing to be met. But I only occasionally act to meet my needs. Remember my needs pull on me, I need a continuous level of oxygen dissolved in my blood, but I only act discontinuously — pushing the used air out of my lungs and then taking a fresh breath fourteen to sixteen a minute.

In an INTERdependent form of life, individual organisms are not able to meet there needs with out help from others. They need the occasional actions of others to meet their continuous needs. This leads to the emergence of receivers of help which are continuously needing help and givers of help are only occasionally acting to give that help.

For human beings, life and survival then is all about the continuing pull of our needs and the discontinuous push of the actions taken to meet those needs. Some of the actions are our own, but most of the actions are the gifts of others.

Needs — Actions

Continuous-Pull — Discontinuous-Push

Passive — Active

Receivers of Help — Givers of Help

Alternating Roles

Within the relationship between self and other, the receiver has continuous needs, but the giver only occasionally acts to help the receiver. Sometimes self is a giver of help. Sometimes self is a receiver of help. Sometimes other is a giver of help. Sometimes other is a receiver of help. Sometimes my actions help others meet their needs. Sometimes other’s actions help me meet my needs.

Within the Coercion Tensegrity this means, sometimes I am the prey to stronger predators who force me to give them help, and sometimes I am the predator forcing weaker others to give me help.

Within the Coercion Tensegrity, the predators are the active members. The prey is continuously vulnerable to attack by the predators. For an INTERdependent species like humanity that means that the Receivers of help are the active members. The givers of help are continuously vulnerable to discontinuous attacks by the receivers of help.

Now compared with the natural pattern,

Needs — Actions

Continuous-Pull — Discontinuous-Push

Passive — Active

Receivers of Help — Givers of Help

We see that within the Coercion Tensegrity there is loss of the natural pattern. Actions and Needs have switched places as have the Givers of Help and Receivers of Help. The Prey is coerced to give help in the form of their actions to meet the needs of the Predators. The predators are in control.

Prey — Predator

*Actions — *Needs

Continuous-Pull — Discontinuous-Push

Passive — Active

*Givers of Help — *Receivers of Help

The prey are continuously at risk of predator attack that will coerce them to give help to the predator.

Enemies — the adversary relationship

As a victim in the Coercion Tensegrity, I am continuously attracting predators to take help from me. As a predator in the Coercion Tensegrity, I am only occasionally forcing others to give me help. Our relationship is as enemies. I hate and fear the predator who is stealing my help. I will do the least I can for him. I will help him only as long as he makes me. I cease helping him the moment I stop fearing him.


More on Interdependence

What is a  Tensegrity?

Kenneth Snelson
Inventor of Tensegrity Sculpture

GIFTegrity (brief)(PDF)
(
scientific basis)

Welcome

Friday, July 5th, 2002

Humans are Generalists aboard Spaceship Earth

R. Buckminster Fuller

I am enthusiastic over humanity’s extraordinary and sometimes very timely ingenuities. If you are in a shipwreck and all the boats are gone, a piano top buoyant enough to keep you afloat that comes along makes a fortuitous life preserver. But this is not to say that the best way to design a life preserver is in the form of a piano top. I think that we are clinging to a great many piano tops in accepting yesterday’s fortuitous contrivings as constituting the only means for solving a given problem. Our brains deal exclusively with special-case experiences. Only our minds are able to discover the generalized principles operating without exception in each and every special-experience case which if detected and mastered will give knowledgeable advantage in all instances. Because our spontaneous initiative has been frustrated, too often inadvertently, in earliest childhood we do not tend, customarily, to dare to think competently regarding our potentials. We find it socially easier to go on with our narrow, shortsighted specialization’s and leave it to others—primarily to the politicians—to find some way of resolving our common dilemmas. Countering that spontaneous grownup trend to narrowness I will do my, hopefully “childish,” best to confront as many of our problems as possible by employing the longest-distance thinking of which I am capable—though that may not take us very far into the future.

Having been trained at the U. S. Naval Academy and practically experienced in the powerfully effective forecasting arts of celestial navigation, pilotage, ballistics, and logistics, and in the long-range, anticipatory, design science governing yesterday’s naval mastery of the world from which our present day’s general systems theory has been derived, I recall that in 1927 I set about deliberately exploring to see how far ahead we could make competent forecasts regarding the direction in which all humanity is trending and to see how effectively we could interpret the physical details of what comprehensive evolution might be portending as disclosed by the available data. I came to the conclusion that it is possible to make a fairly reasonable forecast of about twenty-five years. That seems to be about one industrial “tooling” generation. On the average, all inventions seem to get melted up about every twenty-five years, after which the metals come back into recirculation in new and usually more effective uses. At any rate, in 1927 I evolved a forecast. Most of my 1927’S prognosticating went only to 1952—that is, for a quarter-century, but some of it went on for a half-century, to 1977.

In 1927 when people had occasion to ask me about my prognostications and I told them what I thought it would be appropriate to do about what I could see ahead for the 1950’S, 1960’S, and 1970’s people used to say to me, “Very amusingã–you are a thousand years ahead of your time.” Having myself studied the increments in which we can think forwardly I was amazed at the ease with which the rest of society seemed to be able to see a thousand years ahead while I could see only one-fortieth of that time distance. As time went on people began to tell me that I was a hundred years ahead, and now they tell me that I’m a little behind the times. But I have learned about public reaction to the unfamiliar and also about the ease and speed with which the transformed reality becomes so “natural” as misseemingly to have been always obvious. So I knew that their last observations were made only because the evolutionary events I had foreseen have occurred on schedule.

However, all that experience gives me confidence in discussing the next quarter-century’s events. First, I’d like to explore a few thoughts about the vital data confronting us right now-such as the fact that more than half of humanity as yet exists in miserable poverty, prematurely doomed, unless we alter our comprehensive physical circumstances. It is certainly no solution to evict the poor, replacing their squalid housing with much more expensive buildings which the original tenants can’t afford to reoccupy. Our society adopts many such superficial palliatives. Because yesterday’s negatives are moved out of sight from their familiar locations many persons are willing to pretend to themselves that the problems have been solved. I feel that one of the reasons why we are struggling inadequately today is that we reckon our costs on too shortsighted a basis and are later overwhelmed with the unexpected costs brought about by our shortsightedness.

Humans are Generalists

Of course, our failures are a consequence of many factors, but possibly one of the most important is the fact that society operates on the theory that specialization is the key to success, not realizing that specialization precludes comprehensive thinking. This means that the potentially-integratable-techno-economic advantages accruing to society from the myriad specializations are not comprehended integratively and therefore are not realized, or they are realized only in negative ways, in new weaponry or the industrial support only of warfaring.

All universities have been progressively organized for ever finer specialization. Society assumes that specialization is natural, inevitable, and desirable. Yet in observing a little child, we find it is interested in everything and spontaneously apprehends, comprehends, and co-ordinates an ever expending inventory of experiences. Children are enthusiastic planetarium audiences. Nothing seems to be more prominent about human life than its wanting to understand all and put everything together.

One of humanity’s prime drives is to understand and be understood. All other living creatures are designed for highly specialized tasks. Man seems unique as the comprehensive comprehender and co-ordinator of local universe affairs. If the total scheme of nature required man to be a specialist she would have made him so by having him born with one eye and a microscope attached to it.

What nature needed man to be was adaptive in many if not any direction; wherefore she gave man a mind as well as a coordinating switchboard brain. Mind apprehends and comprehends the general principles governing flight and deep sea diving, and man puts on his wings or his lungs, then takes them off when not using them. The specialist bird is greatly impeded by its wings when trying to walk. The fish cannot come out of the sea and walk upon land, for birds and fish are specialists. …

Aboard Spaceship Earth

Our little Spaceship Earth is only eight thousand miles in diameter, which is almost a negligible dimension in the great vastness of space. Our nearest starãour energy-supplying mother-ship, the Sun is ninety-two million miles away, and the nearest star is one hundred thousand times further away. It takes approximately four and one third years for light to get to us from the next nearest energy supply ship star. That is the kind of space-distanced pattern we are flying. Our little Spaceship Earth is right now travelling at sixty thousand miles an hour around the around the sun and is also spinning axially, which, at the latitude of Washington, D. C., adds approximately one thousand miles per hour to our motion. Each minute we both spin at one hundred miles and zip in orbit at one thousand miles. That is a whole lot of spin and zip. When we launch our rocketed space capsules at fifteen thousand miles an hour, that additional acceleration speed we give the rocket to attain its own orbit around our speeding Spaceship Earth is only one-fourth greater than the speed of our big planetary spaceship. Spaceship Earth was so extraordinarily well invented and designed that to our knowledge humans have been on board it for two million years not even knowing that they were on board a ship. And our spaceship is so superbly designed as to be able to keep life regenerating on board despite the phenomenon, entropy, by which all local physical systems lose energy. So we have to obtain our biological life-regenerating energy from another spaceship the sun.

Our sun is flying in company with us, within the vast reaches of the Galactic system, at just the right distance to give us enough radiation to keep us alive, yet not close enough to burn us up. And the whole scheme of Spaceship Earth and its live passengers is so superbly designed that the Van Allen belts, which we didn’t even know we had until yesterday, filter the sun and other star radiation which as it impinges upon our spherical ramparts is so concentrated that if we went nakedly outside the Van Allen belts it would kill us. Our Spaceship Earth’s designed infusion of that radiant energy of the stars is processed in such a way that you and I can carry on safely. You and I can go out and take a sunbath, but are unable to take in enough energy through our skins to keep alive. So part of the invention of the Spaceship Earth and its biological life-sustaining is that the vegetation on the land and the algae in the sea, employing photosynthesis, are designed to impound the life-regenerating energy for us to adequate amount.

But we can’t eat all the vegetation. As a matter of fact, we can eat very little of it. We can’t eat the bark nor wood of the trees nor the grasses. But insects can eat these, and there are many other animals and creatures that can. We get the energy relayed to us by taking the milk and meat from the animals. The animals can eat the vegetation, and there are a few of the fruits and tender vegetation petals and seeds that we can eat. We have learned to cultivate more of those botanical edibles by genetical inbreeding.

That we are endowed with such intuitive and intellectual capabilities as that of discovering the genes and the R.N.A. and D.N.A. and other fundamental principles governing the fundamental design controls of life systems as well as of nuclear energy and chemical structuring is part of the extraordinary design of the Spaceship Earth, its equipment, passengers, and internal support systems. It is therefore paradoxical but strategically explicable, as we shall see, that up to now we have been mis-using, abusing, and polluting this extraordinary chemical energy-interchanging system for successfully regenerating all life aboard our planetary spaceship.

One of the interesting things to me about our spaceship is that it is a mechanical vehicle, just as is an automobile. If you own an automobile, you realize that you must put oil and gas into it, and you must put water in the radiator and take care of the car as a whole. You begin to develop quite a little thermodynamic sense. You know that you’re either going to have to keep the machine in good order or it’s going to be in trouble and fail to function. We have not been seeing our Spaceship Earth as an integrally-designed machine which to be persistently successful must be comprehended and serviced in total.

Now there is one outstandingly important fact regarding Spaceship Earth, and that is that no instruction book came with it. I think it’s very significant that there is no instruction book for successfully operating our ship. In view of the infinite attention to all other details displayed by our ship, it must be taken as deliberate and purposeful that an instruction book was omitted. Lack of instruction has forced us to find that there are two kinds of berries-red berries that will kill us and red berries that will nourish us. And we had to find out ways of telling which-was-which red berry before we ate it or otherwise we would die. So we were forced, because of a lack of an instruction book, to use our intellect, which is our supreme faculty, to devise scientific experimental procedures and to interpret effectively the significance of the experimental findings. Thus, because the instruction manual was missing we are learning how we safely can anticipate the consequences of an increasing number of alternative ways of extending our satisfactory survival and growth-both physical and metaphysical.

Quite clearly, all of life as designed and born is utterly helpless at the moment of birth. The human child stays helpless longer than does the young of any other species. Apparently it is part of the invention “man” that he is meant to be utterly helpless through certain anthropological phases and that, when he begins to be able to get on a little better, he is meant to discover some of the physical leverage-multiplying principles inherent in universe as well as the many nonobvious resources around him which will further compoundingly multiply his knowledge-regenerating and life-fostering advantages.

I would say that designed into this Spaceship Earth’s total wealth was a big safety factor which allowed man to be very ignorant for a long time until he had amassed enough experiences from which to extract progressively the system of generalized principles governing the increases of energy managing advantages over environment. The designed omission of the instruction book on how to operate and maintain Spaceship Earth and its complex life-supporting and regenerating systems has forced man to discover retrospectively just what his most important forward capabilities are. His intellect had to discover itself. Intellect in turn had to compound the facts of his experience. Comprehensive reviews of the compounded facts of experiences by intellect brought forth awareness of the generalized principles underlying all special and only superficially-sensed experiences. Objective employment of those generalized principles in rearranging the physical resources of environment seems to be leading to humanity’s eventually total success and readiness to cope with far vaster problems of universe.

To comprehend this total scheme we note that long ago a man went through the woods, as you may have done, and I certainly have, trying to find the shortest way through the woods in a given direction. He found trees fallen across his path. He climbed over those crisscrossed trees and suddenly found himself poised on a tree that was slowly teetering. It happened to be lying across another great tree, and the other end of the tree on which he found himself teetering lay under a third great fallen tree. As he teetered he saw the third big tree lifting. It seemed impossible to him. He went over and tried using his own muscles to lift that great tree. He couldn’t budge it. Then he climbed back atop the first smaller tree, purposefully teetering it, and surely enough it again elevated the larger tree. I’m certain that the first man who found such a tree thought that it was a magic tree, and may have dragged it home and erected it as man’s first totem. It was probably a long time before he learned that any stout tree would do, and thus extracted the concept of the generalized principle of leverage out of all his earlier successive special-case experiences with such accidental discoveries. Only as he learned to generalize fundamental principles of physical universe did man learn to use his intellect effectively.

Once man comprehended that any tree would serve as a lever his intellectual advantages accelerated. Man freed of special-case superstition by intellect has had his survival potentials multiplied millions fold. By virtue of the leverage principles in gears, pulleys, transistors, and so forth, it is literally possible to do more with less in a multitude of physio-chemical ways. Possibly it was this intellectual augmentation of humanity’s survival and success through the metaphysical perception of generalized principles which may be objectively employed that Christ was trying to teach in the obscurely told story of the loaves and the fishes. …


Excerpted from  Operating Manual For Spaceship Earth by R. Buckminster Fuller

Who was Buckminster Fuller?

Grunch of Giants
by R. Buckminster Fuller

A Fuller Explanation
by Amy C. Edmondson

SYNERGETICS: Explorations in the Geometry of Thinking
by R. Buckminster Fuller

Welcome

Thursday, July 4th, 2002

Declaration of INTERdependence

Timothy Wilken, MD

Stop reading! Take a few moment to examine the contents of your pockets or purse ……

Can you find any item there, that you obtained without the help of someone else? Look around you. What do you see? Did you make the clothes you wear? Did you grow the food you eat or the tools you use. Look around your home or workplace. Can you find anything that you made. Do you know the names of those who did make all these things? Do you ever know upon whom you depend. Can you find anything in your environment that was obtained without the help of someone else?

I am not talking about ownership here. I will grant that you own your possessions. But would you have them if they had not been for sale. I would argue that nearly everything modern humans possess was obtained with the help of others.

As I examine my world I discover that I depend on others to to grow and produce my food. I depend on others to design and build my home. I depend on others to generate my electricity. I depend on others to supply my water. I depend on others to deliver my mail. I depend on others to educate my children. I depend on others to entertain my family. I depend on others to manufacture my automobile. I depend on others to refine the gasoline for my car. I depend on others to care for my family when we are sick. I depend on others to protect us from crime and war. I depend on others to………. I depend on others, I depend.

Human INTERdependence is made less visible by our present economic exchange system. I go to work and help my employer. He depends on me. At the end of the month he pays me for my help. I depend on him. I can then take some of the money from my paycheck to pay my house rent. While I depend on my landlord for the roof over my head, he depends on me to pay the rent promptly. Sometimes I depend on others and sometimes others depend on me. When we buy and sell in the economic marketplace we are really exchanging help. When I help others they owe me. When others help me I owe them. Money is just the present accounting mechanism we use to settle up. Arthur Noll explains:

“People are interdependent, social beings. We do not, and cannot, live as the independent tiger, or orangutan, coming together only to mate briefly, all child care and education provided by the mother.

“This has seemed obvious to me, and probably it is obvious to most, but it is such an important principle to base further observations on, and logically it is often ignored in the present scheme of things, so I think we should look at the reasons. Lets start with your naked body. Can you manage to clothe and feed and shelter this body, with no hands touching any article except your own hands? If you can make your own tools and live independently for just a few weeks or months, this is interesting, but of course real independence would be a lifetime of this, a reproducing lifetime, so it does fall considerably short of the mark. Additionally, it is an interesting thing that we are communicating, I have written and you are reading this paper. Independent organisms don’t behave like this, if you were independent, your only concern for me should be to tell me to get out of your way, or that you want to mate, and you need no language beyond what the tigers and orangutans use for this. I have heard people say, that they could live independently if they chose. To those few who feel that way, well, you haven’t chosen that path if you are reading this, so if you want to choose it now, then I think you ought to take off your society made things and go. We will send a biologist to study how you live – if you live.

“Next question, is a male- female unit capable of independence? The answer is quite important to the issue of reproduction.

“I have never heard of this being done, and I don’t believe it can be done. Working together, a man and woman with the proper education might make primitive tools and cover some basic needs, if resources are abundant. But wherever resources are abundant, you are going to find competition. Predators can be a serious problem with just primitive weapons, and just two people, one of which might be pregnant or holding an infant. It is true that most large predators are afraid of human beings at the present time, but animals of all kinds eventually test the limits. Domestic animals can be very sensitive about electric fences, for example. You can turn off the fence for weeks, after they learn about wires giving shocks. But they eventually test and learn, and are out. You would not likely find it workable to stay together all the time, either, and the one carrying the child would be alone and vulnerable. And of course, human predators working as a pack, a social group, certainly exist and are the most powerful threat of all. While fantasies are common about individuals and couples escaping social groups, the reality is different. Groups of people have made the rules for individuals for a long time.

“It is interesting to note that walking on two legs has not been all that uncommon in the history of life, but I can think of no other species that has attempted pregnancy on two legs. Two legged creatures have always been egg layers, or marsupials, have never attempted the balancing act of a pregnancy on two legs. I think it is only possible within a social group.

“Further problems are having very little backup for minor sprains or illness. Loneliness can be a big problem, even for couples, as most of us eventually crave other people in our lives.

“The genetic and archaeological evidence indicates that we split off from chimpanzees, which are social creatures, and that we stayed social.”

This may come as a surprise to most readers, but humans are not and cannot be independent. We are an interdependent species. We rely on each other for nearly all our wants and needs. Independence from other is not available to the richest man with the most affluent life style. He is as dependent on the staff of servants who wait on him as they are dependent on him for their livelihoods. Only the poorest of hermits with a quality of life poorer than a cave man can achieve true independence from others. True independence from other humans, requires that he must grow and cook all his own vegetables. He must hunt, kill, skin, dress, and cook all his own meat. He must build his own home using only the materials he can gather and prepare by himself aided only by tools that he made for himself.

We humans are not an independent life form. Despite the common desire of most of us to be independent, human independence is not possible in any scientific sense. Our bodies do not contain chlorophyl and we cannot get our energy directly from the Sun. Other plants and animals serve as our source of energy. We are as dependent on others for our survival as are the animals are for theirs. We can ignore this fact of science by calling the other plants and animals — food and cooking in ways so we are not reminded of the source of our food, but we are still not independent. When we further examine our relationships with other humans, we discover that even here we are not independent. In summary then, we can say that in the lives of plants — the independent class of life, other plays no role . In the lives of animals — the dependent class of life, other serves primarily as a source of food. And finally in the lives of humans, the interdependent class of life, other is very important. Our bodies are as dependent on others for food as the animals, but socially, psychologically and economically, we depend on others and others depend on us. We humans are interdependent.

INTERdependence means that we are dependent on the actions of others to meet our needs. And, others are dependent on our actions to meet their needs.

Once, we accept the reality of our human INTERdependence, then we can get on with winning. The secret of winning then is to get others to help us. Let us examine these options through the lens of synergic science.

Receivers-Givers — partners in survival

The human condition of INTERdependence means all humans need help. This is important enough that it can not be said too often. All humans need help unless they wish to live at the level of animal subsistence. INTERdependence means sometimes I depend on others and sometimes others depend on me.

Sometimes self is a giver of help. Sometimes self is a receiver of help. Sometimes other is a giver of help. Sometimes other is a receiver of help.

Sometimes my actions help others meet their needs. Sometimes other’s actions help me meet my needs.

The bottom line: We humans need each other.


Read more by Timothy Wilken on INTERdependence

Read Arthur Noll’s Harmony

Welcome

Wednesday, July 3rd, 2002

Evolutionary Economics: Metaphor or Unifying Paradigm?

Peter A. Corning, Ph.D.

To our preliterate ancestors, untutored in academic economics but well-attuned to the vicissitudes of living in the late Pleistocene, the basic problem that they confronted — along with all other living things — was survival and reproduction. Earning a living in the “economy of nature” was a relentless, inescapable and somewhat unpredictable imperative.

The dirt-under-the-fingernails weltanschauung of these long-gone hominids included certain universal “bioeconomic” principles (which could have been documented for posterity had there been a perspicacious, time-warped economist available to take notes). These bioeconomic principles included the following, among others:

  • The survival problem is always context-specific. The “parameters” of the problem for each organism differ, depending on its particular characteristics, the nature of its environment and, most important, the precise organism-environment relationship.

  • Energy, and access to relevant information about how to capture and utilize it, are two universal requisites for survival and reproduction, along with an array of other, more variable survival needs.

  • The time and energy that any organism has available to meet its needs is always limited and must be utilized relatively efficiently — or else.

  • All species deploy specific strategies and tactics for earning their livings. Some work alone while others form symbiotic partnerships (mutualistic or parasitic). Some survive by capturing sunlight and a few other basic nutrients while others survive by preying on the photosynthesizers; some reproduce asexually while others form sexually-reproducing partnerships in close-knit social communities; some use various body parts as tools while others fabricate tools as needed from various raw materials; some hoard their information while others are inveterate gossips; and so it goes.

  • Ecological competition is a common feature of the bioeconomic realm, but so also is interdependency, co-operation, symbiosis, and the division of labor. Moreover, competition is not the fundamental “organizing principle” in the economy of nature, as many theorists have asserted. The touchstone is the problem of earning a living and reproducing — “adaptation” — and both competition and co-operation are subsidiary phenomena. They are contingent “survival strategies.” In fact, many species are practiced in the art of avoiding direct competition.

  • Finally, all species exploit the synergy principle in one way or another. Synergy is “nature’s magic,” a way of conjuring economic leverage from an almost endless variety of non-linear co-operative effects.

If none of these principles sound like conventional economics, it is because our economists have erected a science that does not bear much relationship to the biological fundamentals. Thanks to the diligent efforts of two centuries of “academic scribblers” (to borrow economist John Maynard Keynes’s self-deprecating caricature), including the scribblings of a passel of Nobel Prize winners, we have come to view economies, by and large, the way professional economists tell us to.

An economy, so they say, is about competition, markets, prices, preference functions, marginal utilities, rational choices, demand and supply relationships, equilibrium conditions, etc. Moreover, we are specifically admonished not to utilize any a priori concept of biological “needs,” either as bedrock measuring-rods or to make predictions about economic behaviors. We can only deal (scientifically) with the infinitely variable “tastes” and “revealed preferences” of Economic Man (and Woman). In other words, economic behavior depends on the things economists study. And the obvious shortcomings of economics as a predictive science, we are told, can be attributed to the discipline’s growing-pains. In time, better analytical tools, better models and better sources of data will lead inexorably to greater predictive power. Or, alternatively, various “imperfections” in the real world, if corrected, will make it conform more closely to the economists’ models.

In the halcyon days of the social sciences, after World War Two, such a conceit seemed plausible, at least in technologically advanced industrial societies. An ever-smaller proportion of the population was required for food production while a growing number of “consumers” enjoyed a high standard of living and a generous supply of “discretionary income.” Keynesian economics held out the hope that major economic depressions were a thing of the past. Like the rest of us in those days, economists were prone to echo Plato’s observation in The Republic that, if the original purpose of human societies was to provide for “mere life,” we had progressed to the point where it was now possible to focus on “the good life.” Indeed, it was an article of faith in western societies, socialist and capitalist alike, that (as a 1950s G.E. commercial had it) “progress is our most important product.” Not only could progress be taken for granted, it didn’t really need to be explained; it was self-evident. And the residual problems of advanced economies required only some “fine-tuning.” Accordingly, Darwinism and the biological paradigm were widely viewed as being “irrelevant” because, it was said, survival was no longer a problem; economic societies had transcended “nature, red in tooth and claw.”

If the world view of the post-war era was a part of the problem, the metatheoretical framework of economics and the other social sciences — their model of how to do science — was equally at fault. As both Geoffrey Hodgson and Michael Rothschild document persuasively in their two very different volumes, neo-classical economics, whose roots can be traced back to Adam Smith and the Scottish School, was based on a deeply flawed methodology — in fact, a metaphor borrowed from Newtonian physics. The metaphor was that of a self-equilibrating mechanism which operates according to discoverable economic “laws.” Moreover, most economists of the day favored (and probably still do) what the legendary economic theorist Joseph Schumpeter characterized as “methodological individualism,” the assumption that the workings of an economy as a whole can be “reduced” to a simple sum of the actions of each individual participant. Adam Smith’s immortal metaphor said it all and, in the bargain, provided subsequent generations of economic “realists” with a justification for personal greed: “In spite of their natural selfishness and rapacity,” Smith wrote in The Theory of Moral Sentiments, “[men] are led by an invisible hand…to advance the interest of society.”

But perhaps the most perverse aspect of neo-classical economics, not to mention the other social sciences, was the methodological premises associated with cultural determinism and value relativism. It was widely held that, in searching for the relevant causal forces in human societies, the social sciences did not need to look beyond the realm of social phenomena, or perhaps the “laws” of Skinnerian behaviorist psychology. Indeed, the very notion of autonomous human purposes, goals, or creativity as causal factors in economic life was all but banished as unscientific. Frequently quoted was the dogma of the French sociologist Emile Durkheim in The Rules of Sociological Method (1938 [1895]:104, 110), a bible for several generations of social scientists: “Every time that a social phenomenon is directly explained by a psychological phenomenon, we may be sure that the explanation is false…. The determining cause of a social fact should be sought among the social facts preceding it and not among the states of individual consciousness [his italics].”

This comfortable world view began to crumble in the 1970s and 1980s. First, there was the intrusion of some uncomfortable biological facts: the “population bomb,” in Paul Ehrlich’s explosive metaphor, the oil shocks and increasing concern about resource depletion, the growing menace of environmental pollution and, more recently, the ominous threat of global warming. It has become abundantly evident — as a matter of survival if not social justice — that economies are not after all self-equilibrating, although the die-hard advocates of Laissez-faire doubtless remain unpersuaded.

Then there was the challenge of the biological sciences, especially sociobiology, which asserted that biological (and biopsychological) facts also play a role in human behavior (how much has been the subject of rancorous debate). But the most important development by far has been ontological. There has been a growing recognition that a scientific paradigm based on Newtonian physics is not even applicable to modern physics, much less the social sciences. In its place, as Hodgson argues compellingly in Economics and Evolution, the appropriate metaphor for economics, if one is necessary, should be biological. His thesis is not original, of course, but it may well be the very best treatment of the subject to date. Let us briefly consider Hodgson’s contribution.

First, it should be noted that Hodgson’s volume is a work of deep and meticulous scholarship (including 35 pages of end notes and 60 pages of a wide-ranging bibliography) that, among other things, methodically reconstructs the history of evolutionary thinking in economics, from Malthus to Marx/Engels, Spencer, Marshall, Menger, Veblen, Schumpeter and Hayek. Many of these theorists are cast in a new light. However, Hodgson’s purpose is not merely to summarize their work but to critique their ideas in light of our modern understanding of biological evolution, which he has taken the trouble to master, and in this respect alone he has made an enduring contribution to economic theory.

To mention a few highlights: He makes a strong case against treating Marx and Engels as evolutionary theorists. Marx and Engels had a wholly inadequate understanding of Darwin’s theory and, worse yet, used highly questionable sources to rebut Darwinism. Their core conception of a dialectical clash between economic classes that are being swept along in a deterministic trajectory was in actuality a theory constructed within the mechanistic (law-driven) tradition, even though it purported to explain a historical process. The causal dynamics were thus deeply antithetical to Darwin’s theory of evolution as a cumulative process of contingent, incremental change via selection for functional, adaptive properties.

Hodgson argues that the Reverend Thomas Malthus, in addition to playing an inspirational role in Darwin’s own evolutionary thinking, should properly be considered a founding father of evolutionary economics. In various writings, including a major textbook on the Principles of Political Economy (1820), Malthus portrayed economic life as a dynamic process which is driven by the biological fundamentals — particularly population growth and the “means of subsistence.” In contrast with the many economic theorists who have envisioned an equilibrium condition as the natural or ultimate state of humankind, Malthus’s “dismal science” was based on the premise of unending conflict, struggle and change.

Herbert Spencer, at once one of the towering figures of 19th century social science and a virtual nonentity for most of the 20th century (even though his ideas have been freely expropriated by others), is given due credit and fair criticism, for the most part. Hodgson rightly finds fault with Spencer’s orthogenetic view of evolution as a law-like, progressive developmental process leading to greater complexity, harmony and the withering away of the state — a vision Spencer shared, ironically, with Marx (albeit with some important differences). On the other hand, Hodgson perpetuates some negative judgments about Spencer’s work that are not entirely even-handed.

For instance, he holds Spencer to account for not appreciating the “entropy law” (the Second Law of Thermodynamics), which, he claims, contradicts Spencer’s views about the functional advantages of structural heterogeneity. Hodgson should know that the implications of the Second Law in relation to the evolutionary process remain in dispute. The work of physicist Ilya Prigogine and his co-workers on non-equilibrium thermodynamics suggests that there may be circumstances in which increased heterogeneity is in fact more stable, though perhaps not with the certainty of a universal law. Chaos theory, likewise, has illuminated the role of “dynamical attractors,” or stable states, in self-organizing processes. There is also the empirical evidence of “progressive” complexification in biological evolution. And anthropologist Robert Carneiro (1987), in an elegant analysis, added credibility specifically to Spencer’s views on cultural complexity by demonstrating that there is a mathematical relationship (approximately 2/3 power) between village size and village structural complexity for an ethnographic sample of 46 societies.

Of equal concern is Hodgson’s caricature of Spencer’s views on cultural evolution. He attributes to Spencer the crude notion that culture can only evolve insofar as humans are changed biologically, an idea so patently absurd that it demeans a theorist with Spencer’s analytical power and encyclopedic breadth. To the contrary, Spencer should be given credit, along with Darwin, for appreciating the subtly interactional, coevolutionary nature of human biological and cultural evolution.

Hodgson’s analysis of Alfred Marshall, one of the giants of the discipline, is particularly incisive. While much has been made of Marshall’s statement in his classic text, The Principles of Economics (1890), that economics is “a branch of biology broadly interpreted,” in fact Marshall never moved beyond a static, mechanistic paradigm; the core of his work was equilibrium-oriented and a promised companion volume on the dynamics of economic change never materialized. There are some suggestive ideas and intriguing leads in The Principles — allusions to variation and selection processes, the use of an organismic analogy to characterize economic development, an appreciation of the role of organism-environment interactions. Nevertheless, as Hodgson shows, Marshall’s biology was Spencerian, not Darwinian, and it remained, as Hodgson puts it, “a promise unfulfilled.” Marshall’s insights were later ignored, and his example was not pursued. Subsequent generations of economists (for instance, Marshall’s influential follower Pigou) turned instead for their inspiration to the “hard-science” of Sir Isaac Newton.

Joseph Schumpeter and Friedrich Hayek, two of this century’s leading economic theorists, are also found wanting in Hodgson’s painstaking analyses. In Hodgson’s view, Schumpeter is unjustly given credit nowadays as a progenitor of evolutionary economics. Schumpeter’s evolutionism was in reality built on LÈon Walras’s dualistic vision of a general equilibrium punctuated by “revolutionary” creativity — a vision that was somewhat reminiscent of Marxism (and of “punctuated equilibrium” theory in evolutionary biology). While Schumpeter did use the term “evolution,” he did not use it in connection with the Walrasian dynamic. A close reading of his works suggests that he meant it to be nothing more than a synonym for general “change.” Indeed, Schumpeter even objected to the drawing of any specific analogies between biological and economic evolution.

In contrast, as Friedrich Hayek’s theoretical views evolved over the years, he became increasingly enamored of the evolutionary paradigm. Early on, his work was a throwback to the neo-classical free-market tenets of Adam Smith and the Scottish School. The problem, as Hodgson observes, is that the Newtonian model of economic life relies on “methodological individualism.” In an insightful critique, Hodgson shows that there is no justification for treating the individual actor as a “black box” which responds mechanistically to whatever values, tastes, or preferences are poured into it. Such insularity about the causal dynamics of human behavior managed to preserve the autonomy of the discipline at the cost of disconnecting homo oeconomicus from the real world.

In this respect, Hayek was no more at fault than a host of other economic theorists, but his problems were compounded by an ill-conceived attempt to preserve an individualistic, self-equilibrating free market model while, at the same time, grafting onto it a vaguely selectionist superstructure that is focussed on the evolution of “rules,” institutions, and even whole societies. In this paradigm, individual actions are viewed as having functional significance for more inclusive wholes, which Hayek asserted are not, after all, reducible to their parts. Hayek never seemed to appreciate, much less did he take the trouble to reconcile, the profound theoretical contradiction that his evolving theory produced. Worse yet, Hayek’s loose-jointed evolutionism was not at all Darwinian (his cavalier treatment of Darwin was a travesty), nor was it in touch with the voluminous (and growing) scholarly literature on the dynamics of cultural evolution. Finally, Hayek’s psychology seemed to be gratuitous, as if plucked from thin air to support an a priori ideological position. Hodgson minces no words: “Unfortunately, these are not unique cases of a casual attitude to sources and scholarship in Hayek’s work.”

If many of the pioneer economists fare badly under Hodgson’s close scrutiny, Thorstein Veblen, an early 20th century American theorist, provides an example of a pleasant surprise — indeed, a revelation. Though Veblen’s evolutionism was little appreciated or emulated, either then or now, in point of fact he got it right, even though his theoretical framework was never fully fleshed out (nor could it be, given the relatively primitive biology, psychology and economic science of his day).

“Why is economics not an evolutionary science?” Veblen asked in a famous article published in 1898. Economics, he argued, should be focussed on explaining evolution and change, rather than fixing its gaze on the illusion of a static equilibrium. Veblen was also unique in fully grasping and utilizing the fundamental elements of Darwin’s theory (variation, heredity/reproduction and natural selection), and he diligently sought to develop analogous principles for socioeconomic evolution, with an emphasis on institutions as key units of selection along with individual “habits of thought.” In his classic work on The Theory of the Leisure Class (1899), Veblen penned a summary of his vision that sounds very Darwinian: “The life of man in society, just as the life of other species, is a struggle for existence, and therefore it is a process of selective adaptation. The evolution of social structure has been a process of natural selection of institutions.”

Hodgson also points out that Veblen, unlike many other economic theorists, before or since, featured the distinctively purposeful (teleonomic) aspect of socioeconomic evolution, particularly the role of innovation and technological development. (Although Hodgson claims that in this respect Veblen departs from a strictly Darwinian model and adopts a Lamarckian position, in fact Hodgson has a misunderstanding of this aspect of evolutionary theory, an important point to which we will return below.) Noting that many of Veblen’s insights are now in the process of being rediscovered, often without an appreciation for their heritage (e.g., Michael Rothschild in Bionomics), Hodgson concludes: “Veblen should thus be placed among the founding figures of modern evolutionary economics.”

The reward for taking Hodgson’s guided tour through the Pantheon of economic theory is that it provides a firm foundation for his ultimate objective — to clarify the implications of an evolutionary paradigm and to lay out some guiding principles. Though there is a great deal of merit in what he has to offer, I will argue that it is ultimately too timid and, in my view, fatally constrained by the mind-set of his discipline; he breaks no new ground, and he poses no threat to the autonomy of economic science. Indeed, he shies away from some of the implications of his own statements.

Hodgson sets the stage with a frontal attack on the foundations of neo-classical theory. “Crisis,” he observes, is an over-used word. Nevertheless, the problems at the very core of the discipline are so serious that the entire edifice needs to be rebuilt. The neo-classical paradigm is totally at odds with the underlying reality of a contingent, irreversible historical process. Neither the mechanistic assumptions of equilibrium theory nor those of classical rationality are sustainable. Furthermore, the reductionist assumption that self-seeking actors, if left unfettered, will produce social order, much less optimal economic results, is obviously untenable. Chaos theory and a variety of other non-linear approaches to modelling dynamic processes lend support to the contention that economic life displays historicity — a sensitivity to initial conditions, path dependency, directional trends that are associated with positive feedback loops and, not least, an enormous accumulation of baggage from past cultural and economic development. The reality of human purposes and human choices also contradicts the orthodox model; the black box turns out to be a Pandora’s box. “Real world economic phenomena have much more in common with biological organisms and processes than with the mechanistic world of billiard balls and planets,” Hodgson notes.

Hodgson makes short work of the accusation that an evolutionary paradigm implies Social Darwinism, or an endorsement of dog-eat-dog competition. Nor does it imply biological determinism, what some critics have called “vulgar sociobiology.” In a brilliantly argued section on “Problems for Dr. Pangloss,” Hodgson also rebuts the charge that an adaptationist/selectionist paradigm implies a process that inevitably leads to improvement, not to mention some form of optimization or perfection. In short, Hodgson’s rendering of the evolutionary/biological paradigm is exemplary; he has done his homework.

The problem, in a nutshell, lies in the follow-through. The conceptual stumbling block is his insistence on the “autonomy” of culture and economic life. Hodgson adopts and vigorously defends the so-called “dual-inheritance” model of cultural evolution — the predominant view among biologically-oriented social scientists that biological and cultural evolution are separate processes which must be understood and explained in their own terms. There may be interactions between the two processes; anthropologist William Durham’s “coevolution” model stresses this aspect. But the idea that culture and economic life are somehow an expression of (or are shaped by) our biologically-based needs, drives, and capacities is anathema to Hodgson, and to many others who have felt compelled to defend the social sciences against the imperialism of sociobiology.

Accordingly, the logical, even necessary implication is that the framework of biological evolution should be treated only as a “metaphor.” There may be loosely analogous processes of variation, inheritance/reproduction and selection, but these should be viewed merely as heuristic tools. Indeed, Hodgson assigns an entire chapter to the task of trying to show how metaphors have a perfectly respectable scientific pedigree (take natural selection, for instance) and how, in effect, the adoption of an evolutionary approach in economics would simply replace one metaphor with another that is more appropriate to the subject matter. The challenge, then, is to identify the relevant analogues. Hodgson’s preference, following Veblen, is to treat “habits” and “institutions” (whatever those things are — only economists seem to know for sure) as the units of selection.

While this approach is politically safe, in my view it is wholly inadequate. It amounts to little more than a repackaging of institutional economics. While this may provide a patina of scientific respectability for a beleaguered scholarly tradition, Hodgson does not move the argument much beyond where Richard Nelson and Sidney Winter were a dozen years ago with their path-breaking book, An Evolutionary Theory of Economic Change. If the ultimate objective is to get us closer to an understanding of the underlying causal dynamics of economic processes and economic change, it does not help to maintain the pretense that what is in fact a sieve is really a wall. (For the historically-minded, the metaphor that comes to mind is the infamous Maginot Line of World War Two.) Despite Hodgson’s commendable plea for reestablishing the role of human purposes and goals in economic science, in the end he opts to keep the lid on the black box for fear that it might threaten the autonomy of economics.

Michael Rothschild does no better in this regard in his popular best-seller, Bionomics. (His title is a clumsy neologism that overlooks the established term “bioeconomics” while inappropriately excising the oikos, or household, part of the original Greek term; we are left with something that means, roughly, “life-management.”) The vivid illustrations that are a distinctive feature of Rothschild’s volume are meant only to draw out the analogies between the economy of nature and human economies, but in so doing he unwittingly helps to make the case for the more radical thesis that human economies are not simply metaphorical ecosystems — with capitalism as the engine of economic evolution. (The hard-cover edition of his book had the unfortunate subtitle “The Inevitability of Capitalism.”) At the risk of being politically incorrect, I contend that it will ultimately prove more fruitful to view human economies as variations and elaborations on a common theme that is rooted in the process of biological evolution itself. (I will expand on this point below.)

Rothschild takes pains — rather too vehemently — to denounce Social Darwinists and sociobiologists, whom he lumps together in his eagerness to distance himself from the taint of biological determinism. “In their view,” Rothschild asserts, “human culture is not parallel to, but an extension of, human genetic information. For them, the tree of cultural evolution grows from genetic roots. In bionomics, genes and knowledge are not connected…Our genes do not program us to become capitalists. Capitalism is simply the process by which technology evolves. By way of analogy, bionomics argues that, on a day in-day out basis, biologic and economic life are organized and operate in much the same way….Though the analogy between genetic and technologic evolution is powerful, it is not perfect.”

To my knowledge, nobody has claimed otherwise. And has anyone, in this century, seriously asserted that capitalism is programmed in our genes? That hypothesis would make an easy target. However, there is also a bit of ideological sleight of hand at work here. On the one hand, Rothschild asserts that an economy as a whole bears only an analogous relationship to the biological realm. On the other hand, capitalism is justified as “a natural phenomenon.”

Rothschild then proceeds to illustrate his thesis — an unabashed paean for the free market system — with a wonderful selection of parallel examples, for this is a very well-researched and superbly written volume. (There are 57 small-print pages of endnotes and references, with only a handful of serious errors to my knowledge, mainly regarding economic history.) As he shifts focus repeatedly from human economies to the economy of nature, Rothschild compares human and other species in a variety of ways. For instance, he shows how comparable are the uses of information in biological and economic evolution. Yet he conspicuously passes over the closer analogies and even homologies between humans and other species in terms of how they are able to acquire and utilize information through learning and in social interactions.

Likewise, he discusses the dynamics of biological evolution as it has been reconstructed for trilobites and juxtaposes it with the latest thinking about the evolution of Homo sapiens, which he describes without embarrassment as an interactive process in which behavioral/cultural/ technological developments went hand-in-hand with anatomical changes over time. He also details the many parallels between the division of labor in eukaryotic cells and in human factories, yet he avoids mention of the even closer parallel between the division of labor in human societies and, say, army ant colonies or naked mole rat societies with regard to such group-level functions as defense, food procurement and reproduction. (Perhaps because it does not suit his thesis, Rothschild illustrates but does not specifically point to the fact that complex human societies resemble both ecosystems and organisms to varying degrees.)

Rothschild’s treatment of the cost-benefit calculus embedded in economic processes, particularly in relation to energetics, is especially noteworthy. His illustrations range from hydrothermal vent species to Bernd Heinrich’s landmark studies of bumblebee economics to the fascinating corporate history of Cub Foods. He also highlights the vital role of real cost reductions in economic evolution. For instance, he estimates with carefully-documented calculations from historical data that, over three centuries of machine power evolution, real costs (in constant dollars) have declined from about $6,000 per horsepower for the original Newcomen engine to $3 per horsepower for a modern automobile engine. Similarly, data for the American economy between 1910 and 1986 reveal that retail egg prices (in constant dollars) declined an astounding 80 percent. And yet, Rothschild glosses over the fundamental commonalities in animal and human energetics, as stressed by the pioneering economist Nicholas Georgescu-Roegen in his thermodynamically-oriented work. (Georgescu-Roegen is not even referenced in Rothschild’s volume.)

Finally, Rothschild is well enough schooled in the literature of evolutionary theory, ethology and behavioral ecology to recognize the importance of mutualism, symbiosis and social organization in the natural world, and to identify analogues in human societies. He writes: “Avoiding head-on competition — in the wild and in the marketplace — leads to diversity, which, in turn, promotes interdependence. Mutually beneficial relationships, common among species in nature, are echoed in business, where the vast majority of affiliations are based on mutual profitability.” And yet, later on he insists on our uniqueness: “Human beings are different from all other creatures. We are conscious beings. As social animals we are socially conscious…We choose to form communities for mutual aid, support, and sharing. As a species we have always done so. Indeed, our capacity to cooperate may well be our most powerful adaptive trait.” In sum, Rothschild makes the case, compellingly, for a biological paradigm in economics. He fails, conspicuously, to show that the analogy is only skin deep.

The fundamental question for an evolutionary economics is this: What are the causes of both the continuities and the changes that we can observe in economic life? (Darwin termed it “descent with modification.”) Whereas Hodgson is more concerned with the sources of continuity (“heredity”) and with identifying economic analogues of genes, Rothschild addresses the dynamics of change; his focus is the accumulation and modification of economic processes, especially technology and its handmaiden, information. Economic evolution is portrayed by Rothschild as being, fundamentally, a process of cumulative learning, which can be captured quantitatively in the so-called “learning curve” — or “experience curve” in the argot of contemporary business consultants. Economic enterprises are characterized by Rothschild as “organized intelligence,” and organizational learning over the course of time (a process that is often accelerated by the synergies that collective problem-solving can produce) is identified as the primary cause of economic evolution. (Well, it is certainly important, but the causal dynamics associated with historical processes are always configural and synergistic.)

In other words, what Hodgson points to as a black hole in economic theory Rothschild proceeds to fill, at least in part. And yet, once again Rothschild contaminates his argument by insisting on the uniqueness of humans. In what amounts to a non sequitur, he observes that the learning curve and our accumulation of organizational knowledge is what sets us apart from Edward Tolman’s maze-learning laboratory rats. Other species can only improve their economic performance by changing their genes while humans alone can change their technologies, Rothschild claims. (Rothschild cites several key references pertaining to the evolution of behavior and culture in other species, but evidently he didn’t read them carefully enough to discover the broad consensus view among the students of animal behavior that an organism’s “phenotype” is generally the product of an interaction between its “genotype” and its specific environment, and that many adaptive behaviors arise through learning.)

Despite his insights about the workings of a complex economy (the fruit of several years of battlefield experience as a successful lawyer and business consultant), Rothschild’s Panglossian “bottom-line” constitutes, in my opinion, a serious flaw. His conclusion that the experience curve of technology and economic organization, when given its head in a free market environment, will ultimately negate the Malthusian dynamic and “obliterate” the “central myth” of the dismal science (not to mention John Stuart Mill’s law of diminishing returns) is, to put it bluntly, a Pollyanna look-alike. This giddily optimistic projection entails a gamble that we would be foolhardy to take; we won’t have to wait until the next ice age to see Rothschild’s thesis disproved.

Thus, in effect, each of these metaphorical evolutionists puts the human species into its own theoretical Disney World. In Rothschild’s case, the claim that “humans alone” can invent new adaptive strategies is totally at odds with the extensive evidence that other organisms are able do so as well, although humans obviously excel in this respect. In Hodgson’s case, his insistence on the “autonomy” of the economic realm as opposed to the more qualified — and theoretically challenging — concept of “partial independence” amounts to the same thing. (Hodgson did use the phrase “partial autonomy” at least once that I could find, but he obviously did not stress it or pursue its theoretical implications.) In rejecting the fundamental homology between nature’s economy and that of humans (I’m not denying the obvious differences), these biologically-oriented economic theorists perpetuate the conceit that has for so long obfuscated the common “paradigm” shared by all living species — namely, the basic problem of survival and reproduction in an uncertain world.

What is the alternative to these metaphorical visions of economic life? To quote Hodgson’s own “loose” definition of economics: “Economics should be the study of the social relations and processes governing the production, distribution and exchange of the requisites of life [my italics].” I could not have said it better. Economics is concerned, first and foremost, with meeting the ongoing biological “needs” of human societies and their members. A human society is, at bottom, a collective survival enterprise; we are deeply dependent upon one another, as Adam Smith himself stressed. Furthermore, the survival problem remains pressing. Despite our propensity for self-denial, survival is directly or indirectly associated with most economic activity world-wide. (Consider, for instance, the fact that humans spend about one-third of their lives sleeping, and that a substantial share of our economic activity is devoted to providing for this basic biological need in various ways, from hovels to hotel rooms to sleeping bags to sleeping pills. Or, consider how much economic activity is devoted to keeping the human body warm, or cool.)

As suggested earlier, in an effort to distinguish this radically different economic vision from more conventional approaches, I prefer to call it “bioeconomics.” The term was actually coined by an obscure turn-of-the-century theorist, Hermann Reinheimer, one of whose provocatively titled books was Evolution by Co-Operation: A Study in Bioeconomics (1913). More recently, the term has been associated most closely with the thermodynamics approach of Georgescu-Roegen (e.g., 1971, 1976). It has also been employed by the subset of professional economists who are working on various problems at the interface between the environment and human economic activity, such as fisheries management (e.g., Clark 1990).

My own version of bioeconomics was originally detailed in a chapter of my book, The Synergism Hypothesis: A Theory of Progressive Evolution (1983). It formed part of a broader analytical framework that I characterized as an “Interactional Paradigm.” Among other things, this framework featured an attempt to develop explicit measures of basic needs satisfaction in 13 different “primary needs” domains, along with a preliminary discussion of a number of so-called “instrumental needs.” These measures were grounded in the then-current state-of-the-art in public health research and in the work on “social indicators.” (Consider, for example, the vast body of research on human nutritional requirements.) Needless to say, there was plenty of room for improvement in this framework, but at least it was a beginning toward measuring human adaptation in a concrete way.

In addition, I explored in a tentative way the possibility of developing a summary “master indicator” of personal health and a global “Population Health Indicator” as analytical tools that could be used to evaluate the outcomes of economic activity from a bioeconomic perspective, at both the personal and societal levels. Finally, my chapter on the Interactional Paradigm summarized various efforts to understand better the relationship between our biologically-based motivational substrate and the vast range of learned and culturally-molded behaviors through which these motivations are expressed. This area was hardly terra incognita in 1983, and there has been much additional progress since then. (A recent computer search for the period from 1985-1995 identified over 200 book-length studies, many of which were syntheses of the research literature.) In other words, we already know quite a bit about what goes on inside the black box; there is no scientific justification for keeping the lid on it.

A few additional points about the implications of a bioeconomics paradigm:

  • First, this approach is focussed on the causes and biological consequences of behavior — economic and otherwise — including the ways in which biopsychological factors influence the ongoing cultural and economic evolution of human societies. This contrasts with the “dual inheritance” model, which is focussed on the “replicators” — the mechanisms of information storage, transmission and change over time. The objectives of these two approaches are not contradictory but complementary. (Needless to say, this approach also contrasts with the simplistic determinism of vulgar sociobiology.)

  • A key aspect of this paradigm is the concept of a multi-leveled hierarchy of causation (some prefer Arthur Koestler’s less authoritarian-sounding term “holarchy”) — from the physical environment to the most inclusive political entities, including several levels of emergent biological and social “wholes” which are at once partially-independent and interdependent; complex processes of both “upward” and “downward” causation are continuously at work. Indeed, the causal dynamics are usually configural and interactional in nature; they have synergistic properties. Accordingly, in addition to the creative activities singled out by Rothschild, the process of evolutionary change also includes such important “variables” as population growth, environmental challenges and opportunities and, not least, resource availabilities. (To cite one example, England’s adoption of coal as an energy source at the dawn of the Industrial Revolution was hastened by a drastic depletion of its supply of firewood.)

  • In this framework, a distinction is made between various “units of selection” as passive repositories of information storage and replication and the units of selection in causal/functional terms. In the latter case, “selection” is an active process that goes on at multiple levels — among goods and services, tools and technologies, resources and raw materials, physical locations and ecosystems, individuals and households, volunteer organizations and business firms, markets and economic sectors, governmental entities and even whole societies. Futhermore, the precise relationships and interactions among these kinds and levels of selection are immensely complex.

  • This framework also comfortably accommodates purposiveness in general and human inventiveness in particular. In fact, the one lapse in Hodgson’s otherwise flawless scholarship was his apparent unawareness that many biologists have long since accepted the concept of purposiveness in evolutionary biology (biologists seem to prefer Colin Pittendrigh’s term “teleonomy,” or evolved internal teleology, as distinct from an externally-imposed “teleology”). Since the late 1950s, leading evolutionists have also appreciated the fact that purposive behavior plays an important causal role in initiating evolutionary changes. I have frequently quoted Ernst Mayr, who characterizes behavioral change as an evolutionary “pacemaker,” but similar statements can be found in the writings of Waddington, Dobzhansky, Simpson, Ayala and Thorpe, among others. There is also a detailed review in my 1983 book. Since then, at least two full-length edited volumes on the subject have also been published. Finally, biologist Lynn Margulis has weighed in with an update of an older thesis, dating back to a turn-of-the-century Russian school of naturalists, regarding the role of “Symbiogenesis” (symbiotic partnerships that are by definition behaviorally-based) as a source of evolutionary change. In sum, this aspect of Lamarckian theory has long since been Darwinized and does not need to be “imported” to supplement an evolutionary paradigm. (I prefer to call this mechanism “teleonomic selection,” although there are a variety of synonyms in the literature.)

So, how might one define economic evolution from a bioeconomic perspective? Economic evolution can be characterized as a consequential change in a society’s (or a species’) mode of adaptation — ie., in the means of production of the requisites for biological survival and reproduction. It entails the differential selection of alternative adaptive modalities (instrumentalities of needs satisfaction). It is a multi-leveled process, and it is predominantly, though not exclusively, a teleonomic process. While creativity and cumulative learning play an obviously important role, the process is also affected by entrenched cultural values, routines, customs, traditions, rituals (ok, “habits”), and many other factors; the dynamics are synergistic.

Is bioeconomics “an impossible dream,” as the old Broadway song had it? In actuality, its essential elements are already well-established in such disciplines as ethology, sociobiology and, especially, behavioral ecology. (There is also relevant work in physical, ecological, and economic anthropology and even in human ecology.) Researchers in these fields routinely study animal (and human) behavior and social organization in terms of its adaptive consequences. The focal questions are: How does each species organize its survival enterprise? How does it allocate resources to meet its needs? How does it make choices among alternative strategies? And with what biological/adaptive consequences?

Since we are not exempted from the survival problem, there is no reason in theory why the same paradigm could not be applied more broadly to the human species. If economists can successfully penetrate the complexities and ambiguities of market prices to get to the bedrock of “real costs,” it should also be possible to get to the bedrock of “real benefits.” The problem, of course, is the leaden weight of vested interests — intellectual, academic, ideological, economic, even political. These saddle-weights may, in fact, constitute an insurmountable handicap. But perhaps economists will respond to Hodgson’s plea for greater theoretical “diversity.” One hopeful sign is a brand new journal called Evolutionary Economics, which is providing a much-needed forum for various iconoclasts. Another is the nascent new, environmentally-oriented sub-discipline called “ecological economics” (see Costanza 1991).

However, experience suggests that bioeconomics will not easily win converts. It is a discipline that will most likely have to be created at the interstices between economics, anthropology and the life sciences. Nevertheless, I will hazard the prediction that, in the long run, the efforts of Hodgson, Rothschild and others who have been chipping away at the reigning dogma (and the priesthood) of the economics establishment will come to be viewed as transitional figures — as major contributors to a more fundamental paradigm shift than even these pioneering thinkers had in mind.


References

Carneiro, R.L. 1987. The evolution of complexity in human societies and its mathematical expression. International Journal of Comparative Sociology, 28(3-4): 111-128.

Clark, C.W. 1990. Mathematical Bioeconomics: The Optimal Management of Renewable Resources. (2nd Ed.) New York: Wiley-Interscience.

Corning, P.A. 1983. The Synergism Hypothesis: A Theory of Progressive Evolution. New York: McGraw-Hill.

Costanza, R. ed. 1991. Ecological Economics: The Science and Management of Sustainability. New York: Columbia University Press.

Durkheim, E. 1938[1895]. The Rules of Sociological Method. Chicago: University of Chicago Press.

Georgescu-Roegen, N. 1971. The Entropy Law and Economic Process. Cambridge, MA: Harvard University Press.

Georgescu-Roegen, N. 1976. Bioeconomics: A new look at the nature of economic activity. In The Political Economy of Food and Energy, ed. L. Junker. Ann Arbor: The University of Michigan Press.

Hayek, F.A. 1988. Collected Works of F.A. Hayek. London: Routledge and Kegan Paul.

Marshall, A. 1961[1890]. The Principles of Economics. London: Macmillan.

Reinheimer, H. 1913. Evolution by Co-operation: A Study in Bioeconomics. London: Kegan, Paul, Trench, Trubner.

Schumpter, J.A. 1934. The Theory of Economic Development. Cambridge, MA: Harvard University Press.

Spencer, H. 1969[1876-1896]. Principles of Sociology. London: Macmillan.

Veblen, T.B. 1899. The Theory of the Leisure Class: An Economic Study of Institutions. New York: Macmillan.


Peter Corning’s Website

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Welcome

Tuesday, July 2nd, 2002

Edward Haskell is one of the least known of the synergic scientists whose ideas and works are presented throughout the UnCommon Sense—Library. Haskell made several unique contributions to human knowing.

1) The discovery of the 9 Co-Actions.

Haskell explained that the two parties to a relationship would experience one of nine possible co-actions. A relationship can be effected in three ways. Your “X” can go up, remain unchanged, or go down. And, my “Y” can go up, remain unchanged, or go down.

 

Our relationship might be good for you, good for me; it might be good for you, neutral for me; it might be good for you, bad for me; it might be neutral for you, good for me; etc.; etc..

2) The discovery of three classes of relationships.

Prior to Haskell, Neutrality simply represented the boundary between Adversity and Synergy. Haskell recognized that the Neutral class of relationships, in and of itself, was of equal importance to both the Adversary class of relationships, and the Synergic class of relationships.

In effect, Haskell discovered Neutrality. If we are to build a synergic future, we will not only have to transcend the Adversary Way, we will have to transcend Neutrality as well. I think this is one of the major difficulties humans face today in understanding three-fold nature of relationships. Because Neutrality is invisible in our paradigm of human relationships, most individuals assume if they are not Adversaries they must be Synergic. The same old Either/Or scientific mistake.

3) The invention of the Co-Action Compass or PCS.

This at first appears abstract and mathematical, but once understood is a powerful reflection in one diagram of all three classes of relationship.

  

Haskell’s focus was on evaluating adversary, neutral, and synergic relationships between all stages of process. Much of his work was on relationships between particles, atoms, molecules, bactereria, plants, and animals. The PCS allowed him to plot the resultants of all three types of relationship on a single geometric grid.

The shape of the PCS was not invented by Haskell. The shape evolved and took form from the real data that was measured extensionally, and plotted from analyzing numerous relationships between particles, atoms, molecules, bacteria, plants, and animals. The term extensional here is borrowed from Korzybski to mean from the real world.

Haskell did not study or analyze human relationships, but he predicted that the PCS would be useful in anlyzing adversary, neutral, and synergic relationships between humans and groups of humans, and finally.

4) The Moral Law of the Unified Science 

Much more important than Haskell’s recognition of the importance of the spiritual truth “As you sow, so shall you reap,” was his restatement of this truth as a scientific law of Nature that applied in all seven stages of process—light, particle, atom, molecule, plant, animal and human. Haskell explained:

“The first formulation of the MORAL LAW for a non-human kingdom of Universe was Dimitri Mendeleev’s discovery of the Periodic Law in 1869. “The properties of the chemical elements are functions of their atomic weights.”

“What Mendeleev’s discovery states for Atoms is that “As ye sow, so shall ye reap,” where reaping is the properties of the chemical elements and sowing is the co-Action between the atom’s two components ­ its vast, light, electron cloud, and its tiny, massive nucleus.”

Haskell’s analysis of the Atomic elements showed that these two components ­ the electron cloud and the massive nucleus related in only three ways ­ positive, neutral, or negative. Haskell called this the Moral Law of Unified Science.

Edward Haskell presented his scientific generalization to the general public in 1972. You can view that presentation by clicking the following link:

Generalization of the Structure of Mendeleev’s Periodic Table


Full Circle: The Moral Force of Unified Science now online thanks to the hard work of Don Steehler

About Edward Haskell

Read more about Haskell’s work in UnCommon Science and Understanding Order

 

Welcome

Monday, July 1st, 2002

Along with Alfred Korzybski, R. Buckminster Fuller, Arthur Young and N. Arthur Coulter,  Edward Haskell was one of the leading pioneers of synergic science. His books have been out of print for many years. It is an honor to again make one of the classics of synergic science available. The following is the introduction to the first chapter of Full Circle: The Moral Force of Unified Science.


What Generalization of Mendeleev’s Periodic Table Means

Harold G. Cassidy 

I would like, first, to summarize briefly the theoretical ideas present in Haskell’s work as I have observed them appear and develop over the last twenty years to their present fruition. Then I would like to suggest in summary their meaning for the field of Education.

In my opinion, Haskell has discovered a scientifically-based pattern of a universal kind which is displayed in some respect by all of human knowledge and experience of Nature and Man. This is a large statement. Propositions of this kind have been advanced since the earliest days of philosophy, and in view of the signal lack of agreement among philosophers throughout the ages and today, it behooves us to be extremely wary of such statements. Yet strange things have been happening in science; and if I say that, in my opinion, this pattern that Haskell has discovered (and such discovery inevitably involves a degree of creative invention) constitutes an invariant-relation that enables translation between various developing fields of knowledge and experience, then at least metaphorically one can understand me to mean that like the Lorentz Transformations it makes the applicable relativity tolerable.

I assume then, that my task is to summarize the theoretical and empirical bases of this statement. That is, to give support to the hypothesis that Haskell has here a universal pattern; to show its nature and empirical reference; and to make it plausible for scientists to give it their attention. The pattern with which we are concerned is made up of several sub-patterns. I shall summarize each of these, as I see them, then put the whole together.

Read the full article: What Generalization of Mendeleev’s Periodic Table Means


Edward Haskell

New online version of  Full Circle: The Moral Force of Unified Science

Read more about Haskell’s work in UnCommon Science 
Also see:  The Relationship Continuum and Understanding Order