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From Newton
to the period of Kant we see a full cycle of a dialectic that resulted in the
distinction of human and natural sciences. This period seems lost to us and we
live in the secondary downfield arising in the emergence of scientism as a
universal discourse. The Science Wars, and the Two Cultures debate, are really
echoes of this period near the climax of the Enlightenment when a deeper
dimension to rationality was explored against the backdrop of the Romantic
movement, and much else. The point for us will be in something like Kant’s
distinction of theoretical and practical reason. Whatever we think of his
formulation something like it is always present, as a challenge to the
reductionist monism ambitious to mechanize all explanation. This distinction is
not hard to find in current science. That said, the original formulation of the
eonic model consisted of studying systems theory, quantum formalism, artificial
life and computer concepts, with Newtonian mechanics in the background. The
transition to Kantian ideas and the philosophy of history is
a subsequent stage. To complete the project of science would require a science
of freedom.
We should acknowledge a certain irony in the use of this
phrase. This ‘science’ is, of course, the great storm-tossed vessel of Romantic
Naturphilosophie, visible in the
metaphysical continuations to Kant seen in a figure such as Hegel, with his
classic thematic of an ‘evolution of freedom’, ‘evolution’ a term he did not
use. We might think this vessel was lost at sea, and the collapse of Hegelianism
in the period of Comte signals the onset of a positivistic era that swings to an
opposite extreme, a reduced methodological naturalism deaf to its inherent
dilemma. We might be counseled to bypass Hegelian mysteries, but take with us a
preposterous question. If one were so Hegelian as to rewrite foundations armed
with Spinoza, then does not the grand opera of Idealism constitute a form of
methodological naturalism? Like the smile of the Cheshire Cat this joker in the
deck lurks in the reshuffled tarot of modern science, if that be a transient
episode of scientism, with its recurrent, muffled cries of ‘Back to Kant’, maybe
even Newton, the real one.
Modern science is an attempt to derive the unity of nature in
the context of fundamental laws, working upward in a kind of ‘bootstrap’ that is
itself reminiscent of the evolution
ary. This attitude is as essential as it is
misleading. Bootstrap is an historical ‘subhistory’ interacting with general
history. We are left with a haunting question. Does physics really apply to
reality, to human reality? Reductionism is an essential part of our own
argument. And yet we are left to wonder. Look at the desert of theory left
behind by the whole initiative of science in the cultural realm.
From Newton
to Quantum Mechanics, theoretical bootstrap proceeds on the majestic subtleties
of the differential equation, and then, at the threshold of life, squawks like a
radio moving between stations. Are we really sure reductionism can do evolution?
In general, the means of explanation is both evolving inside a larger system and
being used to explain that system. Should culture adapt to each paradigm change
or wait until the end times of theory to draw its conclusions? One trap is that
a teleological system might evolve anti-teleological sciences teleologically and
then find the result wrongly applied to the whole. The deficit between the
latest upgrade to the definition of reductionism, and out of date explanations,
is already a force to be reckoned with in the consideration of any kind of
theory at all. Social science is out of sync with the evolution of physics, and
ended up negating the surer insights of our transitional figures, and their
careful groundwork for the human sciences, to coexist with the natural sciences.
It is important to remember the history of this reductionism
in physics, where, for example, the phenomena of electro-magnetism were
‘reduced’ only after they were first discovered as independent empirical
realities. Therefore, our first search is in the field of phenomena. Further,
each ‘small’ step sees a tailor-made addition of mathematical methods, with an
exotic change of character in the fundamentals as the mathematics of Quantum
Mechanics is discovered, at a deeper level of ‘reduction’, voiding the previous
set. The issue of reduction is then quite unclear, and does not preempt the
nature of phenomena very ‘distant’ from these sources. Finally, one should
wonder if the new world of mathematical logic discovered by Kurt Gödel,
with its issues of consistency and incompleteness do not impinge directly on the
issues of evolution as
it ‘stretches’ to encompass the vast domain of separate things. We can detect
the failure of bootstrap in the sudden decompression as substandard mathematical
foundations in population genetics (despite the great interest in this subject).
The plug-in ‘force’ argument is absent, and ad hoc substitution of
randomness is all we see. Sight unseen we suspect the failure to observe deep
time is misleading theory.
Although the attitude of modern ‘bootstrap reductionism’ in
the best sense of seeking the unity of nature on the bedrock of physical laws
should be our starting point, or at least a reference point, in practice, issues
of evolution are doomed to be empirical mapmaking before they can aspire to
being theoretical derivations of first principles. It is often assumed that the
application of the causal determinism implied by the use of differential
equation in such fields as population genetics or the macro-economic model are
‘scientific’ whilst all other approaches are subjective. The truth is probably
very far, if not the reverse, from this. In a nutshell, we will discover that
science can as yet claim no generally viable theory of evolution. The confusion
over history and the descent of man is but one gray area where the assumptions
of reductionism produce pseudo-evolutionary theory.
It is the distinction of facts and values that returns to
haunt all theories of evolution, as does the
so-called ‘naturalistic fallacy’, whereby the ‘is’ and the ‘ought’ are to endure
mutual quarantine. The charge of metaphysics is laid against the claims of all
violators of these protocols. But then no theory is possible, for the
elimination of values may fail to account for the phenomena observed, here the
association of religious evolution and periodicity, and the parallel exploration
of a spectrum of values.
We can be finished quickly with our business of describing the
eonic effect without rendering a final answer to the apparent contradiction of
facts and values, just as we can attend a concert without knowing how
the values of music emerge from the facts of violins, tubas, and the
administered tempo of parallel productions. But we will abide here with the rule
that we will renounce theory for the purely descriptive before we renounce this
distinction, and give no license to an evolutionary theory as science that can’t
account for the ‘songs in a songbird’. And not the least reason is that we see
this antinomy frozen in history, as ‘valuation’ in periodic motion, an example
being the ‘timed’ emergence of the great religions and the idea of freedom
itself, a strong hint nature does not
honor the so-called naturalistic fallacy. In fact, it is just here that the idea
of freedom, along with the distinctions of consciousness, as self-consciousness,
offers the bridge.
Systems, selves,
self-organizations The category beyond Darwin needed has been found,
self-organization. But the actual use of this category never seems to succeed.
The resemblance of the eonic data, our turning points, to patterns considered in
theories of self-organizing systems is too close (and yet too hopelessly fuzzy)
to reject and one is drawn into an immediate inspection of their content. We
cannot adapt current theories of ‘self-organization’ to the eonic effect in any
rigorous fashion, and yet at the same time this category, taken if necessary as
a mere metaphor, is the only one open to us. There is also a pronounced tendency
to confuse or collate these theories of self-organization with the
‘self-organization’ of economic systems. That is
not at all our usage. Culture does not self-organize in the fashion of economic
systems.
The starting point of our enquiry is not philosophy or
religious historicism but the idea of a systems model (and the unused but
lurking formalism of Quantum Mechanics). Then we pull away quickly in the
primordial antinomy of freedom and necessity by attempting to correlate, if not
derive, formal freedom (not free will) from a ‘semi-causal system’ or ‘apparatus
implying a principle of sufficient reason’. However humble this gesture of the
systems modeler (it is a formal gesture since the basic elements have no
numerical parameters and require judgment) it is an appropriate beginning. It is
in fact similar to situations now directly addressed in computer science.
Indeed it is at the point of seeing the limits here that we
can retreat and devise a new type of model, but as a form of bare periodization.
It is possible, in a pinch, to produce a block diagram of a refrigerator or an
automobile without understanding the foundations of mechanism. In the same way
we can devise an ‘eonic model’ to see ‘how history works’ in the sense of what
it does, at a high level.
Computer mice The realm of computer science shows us the most
obvious example of something like our coming distinction of mixture histories,
‘system’ and ‘free action’. Thus science is already tackling this question in
its hybrid systems of computer mechanics, and the code for a computer mouse is
most provocative in this sense.
Something like the functionality of a computer mouse must be
involved in any genuine statement of historical law in the sense that one system
idles while another acts, and must match coordinates, on the computer screen,
with events to receive input ‘geographically’. It is interesting that the
programming tactic for a computer mouse is a ‘do…while’, or ‘wait until input’
statement that does not execute except in relation to free activity. The
computer mouse is clearly evident in the macroeconomic study of the economic
cycle, as data from ‘just before’ is recycled into ‘free action’ modification of
a system in motion. This system of agent and machine is worthy of reflection,
because it contains the seeds of a new approach to science.
There is a symbolic significance to this humble situation. Two
circumstances, the physical and the human, are given at the start of a session
of interaction, without the derivation of one from the other. In the same way,
human psychology is an historical given. We cannot safely derive it in advance
from a theory of evolution on the basis of selectionist theory. In general, we
wish to derive consciousness from some prior system in a scheme of absolute
reduction. But is that possible? We are better off taking two independent
realities, as given, at the beginning of our discussion. In the process we look
at the history of man’s attempt at self-understanding, and that includes the
‘present of theory’.
System action/Free action This is but one of many examples where we
deal with tandem systems uniting the operation of that system, and a field of
options in the context of that system. Such a system may or may not be
deterministic, at a higher level, but the point is that within the system
context, optionality is a given. This ‘freedom’ factor requires us to examine
the field of realized choice against the backdrop of the system operation. As we
examine the eonic effect, this kind of analysis is our best strategy of
explanation.
Conway’s
Game of Life We will be using the term ‘discrete-continuous model’ in the
text. The term is very general. But examples abound. A simple example is a
computer program such as the Game of Life. A new candidate for evolutionary
explanation is the genetic algorithm, and it should have been open to question
whether this is a strictly reductionist approach to scientific explanation.
Whatever the case, if we allow this form of explanation, then we are on our way,
at least in terms of a generalized type of explanation related to the eonic
effect, which we will see operates on
two levels, as does a genetic algorithm. As we move to invoke the
element of discontinuity, we can observe that discontinuity arises in the
genetic algorithm in the clocked cycles of the program generating the
computational ‘do…while’.
It would be entirely within reason to claim that a program
such as Conway’s
demonstrates an embryonic ‘universal history’ of the type we are going to
construct. That is, it operates on two levels, visible in the ‘do…while’ and
what it does ‘while…’. Therefore, as we proceed, we can defend our eonic model
by reverse finger wagging. We will do nothing more drastic than what is done in
the Game of Life, in principle.
Quantum Mechanics The eonic model began with many
explorations of complex systems. But the formalism of quantum mechanics (and the
Game of Life) is the only thing that remotely resembles the ‘two levels’ aspect
of the eonic model. Quantum mechanics is interesting here, not for its free will
debates, but for its contrast of the two levels involved in the basic causal
wave mechanics in relation to the quite different formalism of measurement. This
relationship links the level of the scientist performing such a measurement, and
the system being examined. Note that the scientist’s acts are historical, and
his actions the result of a decision ‘historically’ given at such and such a
time. The overall contrast of levels resembles our eonic determination and free
action, except that it seems the scientist seems the one being ‘measured’ by
history. In any case, all we can do is notice the way the formalism of Quantum
theory changes as the factor of measurement is introduced.
The Newton riddle We should note that modern
scientists would not find Newton,
strictly speaking, one of their number, given his interest in the argument by
design, and his realization of the limits of his subject. As one historian of
eighteenth century biology notes, the foundational Newton at
the threshold of modern physics exempted the human will from the laws of
momentum, and found divinity implicit as the sensorium of space as a necessary
adjunct to cosmic function.[i]
And it was the philosopher Kant, among others, who moved to
bring a theory of stellar evolution into this void where the argument by design was,
as in the era of Darwin, still entangled in the deliberations
of the new science. A similar resolution of the question of human will has never
been successful. We should note at least that the real Newton is almost a foreigner in the era of
successful scientific worldviews, and concerned himself with the full spectrum
of questions from the theological to the occult and alchemical later discarded
as irrational in the coming worldview.
The scientist Kant is forgotten, and the philosopher
Kant (next to Rousseau) is little appreciated for his effort to ‘model’ the
aspects of the ‘will’ that Newton
found intractable. Newton
at least knew his business and grasped the nature of the limits of his subject.
The complexity of the Kantian response is thus seldom seen in its clear echoes
of mechanical explanation in the context of the rising physics. We should note
the fact that Newton
is almost out of character as a founder of his own subject, while we will
rapidly discover that he makes better sense as the hero of our own enquiry. Thus
we may proceed, since the scientist has so little use for this inspirational
figure seen as better suited to our own. Thus the main chance must a foundation
in science, thence to proceed, if we may, to a science of freedom.
[i]
Peter McLaughlin, Kant’s Critique of Teleology in Biological
Explanation (Lewisten, New York: Edwin Mellen, 1990).
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