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Our Use of Systems Theory
Paul
Stephen Prueitt, PhD (Pure and Applied Mathematics, 1988, UTA)
This
Draft February 24, 2013
This
Draft: February 24, 2013
Much of the text in our Proposal is intended to explain a
theory of
interaction and co-evolution of systems. General
systems
theory,
neuroscience ,
complex systems theory,
and formal ontology modeling theory
are used to create a very generic model of systems.
Genetic algorithms
are applied computationally to digital systems so as to change the code
in the
digital system, in near real time.
Digital systems might be
evolved, much like biological
systems. Isomorphic algorithms
might form a layer of control . The question now becomes, “How are
these systems to be governed?” The
answer must be, “By humans expressing intention via democratic
processes.” Otherwise we are in for a
stark future,
one that is feared by most. The
alternative is democratic governance. The
choice is clear.
To make correct choices,
a democracy must exhibit a type of
group intelligence. It is thus
important to understand what is group intelligence, and other emergent
phenomenon. An emergent system
induces characteristics of individual interactions, over time. We adapt. But how
might digital systems model emergent behavior? What
is
adaptive
behavior
in
purely
digital
systems? Adaptation
requires a system that is adapting and a system’s environment in which
the
adaptation is occurring, plus a measurement/action transaction
involving the computing device and natural intelligence.
A stratified architecture
was developed. With this computing architecture, human
communities and individuals might produce machine ontology that assists
in
computing services requested by the community. We
see
this
occurring
already.
This capability to adapt
computing architecture as a
function of collective human intentions, is everywhere manifesting. A model of most of the general systems
properties of the real world creates a malleable stratification of how
digital
systems interact. The induction of
meaning to symbol produces a community-based reification of assessed
meaning. The results from computations might be
aggregated into a decomposition of archetypal elements into several
organizational layers. Within each layer the interactions are
Newtonian, in the classical sense. This is
unlike natural systems that are Rosen
complex .
What are the expected
consequences from these new
architectures? Measurement creates
the possibility of a utility function governing genetic algorithms, and
affecters instrument the possibility of an action into the real world,
based on
computed results . The utility function for social
networks will become less a product of random induction.
Quick and agile group intelligence will
manifest. Social media will make democratic forms
of human governance, ubiquitous.
So what has systems
theory to do with education? Our general thesis is that an induction
of specific properties from individuals and from past history has
occurred, and
always will occur. This is part of
the nature of evolving systems. Digital
systems are different from natural systems,
in specific ways. But the simulation of real worlds by
digital simulation worlds is already occurring.
Social and personal
reality might be better when there is an
increase in the value of educational processes. We
humans
largely,
but
not
exclusively,
construct
our
own
social
realities. We do this as
individuals and within social units. Sometimes
the
constructions
are
good,
and
sometimes;
like
when
we
go to
war, it is not good. Constructions
such as racism are often presented to the individual holding this view
as
justified. Universal education is
necessary if these constructions are to be properly placed into the
history
books.
Properties consequent
from specific negative cultural
characteristics are, we conjecture, deeply ingrained in the American
educational system. This viewpoint
seems clear on the surface, but is somehow discounted by social
viewpoints
regarding human natures. We
address this elsewhere in the National Education Bridge proposal . Evolutionary
forces
might
construct
a
well
functioning
educational
system
supporting
the
ideal of
universal education for all citizens.
We are at least partially
responsible, collectively for what
we have or do not have. In spite
of what appears to be best efforts, we have ourselves been the
instruments
through which specific structural problems are rooted in our social and
personal existence. We can change
this, collectively.
What is the connection
between a false sense of best effort
and a decline in American educational outcomes? Here
we
come
up
against
the
limits
of
a
cultural
capacity,
holding onto classical theories as if these might be the only path to
truth and
understanding. But the decline is
not explained in classical terms. Why
should complex systems be explained by classical
theory? The decline might be explained as
a
type of collective induction. Understanding
what
collective
intelligence
might
become
is
the
challenge
of
the
next generations.
Universal
education would help. Mass
education is causing deep rifts to magnify. Consider
the
possible
connections
between
the
set
of
all
personal
experiences
and individual sense-of-self. How
well is this connection understood? As the
reader might easily agree, our
science does not yet have a good hold on this type of question. We are crippled in this positive effort
by the power of social fundamentalisms. Massive
Open
Online
Tutoring
Systems
(MOOTS),
were
these
to
manifest
in
social media, will create new types of social
power. Universal education, for all,
empowers
all of us to exercise our God given rights to vote and participate in a
democratically
defined social system.
Prueitt, Paul S. (1995a)
A Theory
of Process Compartments in Biological and Ecological Systems. In the
Proceedings
of IEEE Workshop on Architectures for Semiotic Modeling and Situation
Analysis
in Large Complex Systems; August 27-29, Monterey,
Ca,
USA;
Organizers:
J.
Albus,
A.
Meystel,
D.
Pospelov,
T.
Reader
Rosen Robert (1991, Life Itself: A Comprehensive Inquiry
into the Nature, Origin, and Fabrication of Life, Columbia University
Press Published posthumously
Prueitt, Paul S.
(1996d).
Structural Activity Relationship analysis with application to
Artificial Life
Systems, presented at the QAT Teleconference, New Mexico State
University and
the Army Research Office, December 13, 1996.
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