Systems Thinking
A Case for Second Order Learning
Jamshid
Gharajedaghi
The
learning Organization, Vol. 14
November 6 2007
Emerald
Group Publishing Limited, 0969-6474
During the last 50 years, our worldview
has gone though a profound transformation in two critical dimensions. Not only there has been a fundamental
shift in our understanding of the nature of the organization from a mindless mechanical system to a purposeful socio-cultural
system. But also, there has been a
discriminating shift in our way of knowing: from analytical thinking,
the science of dealing with independent
sets of variables, to systems thinking,
the art, and science of handling interdependent set of variables.
Unfortunately, despite all the rhetoric
to the contrary, our newly found insights have had very little influence in our
choices. A dominant analytical
culture, with a scientific tag, has kept reproducing the same set of
none-solutions all over again.
Effective use of these discriminating
conceptions requires not only a clear understanding of the notion of
self-organization, but also unambiguous recognition of the shortcoming of the
analytical thinking.
Unfortunately, the task is not just an academic discourse but demands second
order learning, enormous emotional struggles and huge cultural challenge. Engagement in this process, in addition
to competence, requires courage.
Socio-cultural-systems and Self-organization
The formidable second law of thermodynamics
states that universe as a close system
has a tendency toward elimination of all distinctions. Thus, the ultimate state is sameness
& randomness, (a chaotic simplicity).
Entropy (S), the measure of randomness & sameness will therefore
always increase.
However, open systems,
are neg-entropic and move toward organized complexity
According to quantum theory universe is continuously
expanding with increasing order and complexity. In this context even sub-atomic particles show open systems
behavior and self-referencing tendencies
In addition Living systems theories maintain that open systems, are self-organizing. They exhibit a tendency to move toward a predefined order.
For Capra (2002, page
34) ÒThe organizing activity of living systems, at all levels of life, is a
mental activity. The interactions
of a living system with its environment are cognitive interactions.Ó
Stuart Kauffman sees Self-organization as the co-producer
of the stunning biological complexity around us. ÒMolecules of all varieties join in a metabolic dance to
make cells. Cells interact with
cells to form organism; organism interact with organism to from ecosystems,
societies. Where did this grand
architecture come from? For more
than a century, the only theory that science has offered to explain how this
order arose is natural selection.
But in crafting the living world, selection has always acted on systems
that exhibit spontaneous order, Formation of this underlying order further
honed by selection needs to be explained as wellÓ. (Kauffman1995 Preface
page 1-2)
I have argued
extensively elsewhere (Gharajedaghi, 2006
page 122) that to be self-organizing, and to move toward a predefined order, a system must possess means of knowing, an internal image of what
it wants to be.
The
shared image of the desired future provides default values for all decisions
and stands at the center of the process of change. That is why experience with social transformation is fraught
with frustration. The triumphant
resurgence of old patterns of behavior despite the concerted efforts of change
agents is an uninterrupted saga of despair. What seems to make this stubborn insurgency so overpowering
is the fact that the set of organizing principles (cultural codes) that make
the system to behave the way it does are implicit and in most cases are
considered sacred.
The set of implicit, sacred cultural
codes or organizing principles responsible for regenerating the existing order
is what I metaphorically refer to as Òsecond-order-machine.Ó Second-order-machine
is equivalent to the notion of attractor in Chaos Theory. To produce a change in behavioral
pattern of a social system its second order machine need to be dismantled and
the attractor in action be redesigned.
Otherwise, the existing order will outlive the temporary effects of any
interventions.
I have also
argued that purposeful,
socio-cultural systems are self-evolving.
They do not passively adapt to their environments but co-evolve with
them. They are able to change the
rules of interaction as they evolve over time. But, never the less, in open systems
changes do not occur randomly. They are consistent with what has gone on
before, with the history, and identity of the system. This phenomenon known as Self-reference
is a major obstruction to the development of traditional systems.
For example: the baggage of the past tragedies and unpleasant
memories is a heavy burden for the traditional cultures to overcome. The existing distorted images obstruct
self-evolving processes.
In a more familiar context, consider the education and/or
healthcare system where peer evaluations and strong self-referential values
have produced a dominant closed culture that keep reproducing the existing
order despite numerous calls for reform.
As
long as organizing principles of a dominant culture remains un-challenged
behavior of all the social-units originating from this culture will remain
unchanged.
To
development, these systems need to go through an active process of unlearning
and redesign.
Unlearning is an iterative, and collective process of the second
order learning that demands freedom to question the sacred underlying
assumptions. But, many traditional
societies lack the freedom to question their sacred cultural codes. Most are subject to enormous
intimidation by traditional forces.
Questioning a sacred practice is often treated as an insult and is
punishable by death. Sometime intimidating forces,
present such a monumental obstruction to development that paying any price to
remove them might be justified. So
much this is so that even tragic intervention of outside power, if it results
in dissolving the entrenched intimidating forces, may prove to be a welcome
tipping point for potent cultural evolution (Japan & Turkey provide
sobering examples for this arguments).
Cultural intimidation, and ensuing self-censorship has been the
most destructive tools of dogmatic ideologies, left or right, throughout
history. Emancipation,
according to Habermas, takes place whenever people are able to overcome past
restrictions that had resulted from ideological distortions.
Analytical
Thinking and Complexity
Complexity is a
relative term. It depends not only on the Number but also most importantly on the
Nature of interactions among the
variables involved. Open loop, independent variables with
linear relationships are considered simpler than closed loop, interdependent variables with nonlinear relationships.
Analytical
thinking is preoccupied with independent
variables. It stubbornly assumes that the whole is
nothing but the sum of the parts.
However,
increasingly we are finding out that our independent variables are independent
no more and that the neat and simple construct that served us so beautifully in
the past is no longer effective.
Unfortunately our cognitive ability has evolved
around assumptions of independent variables, open loop thinking (unidirectional
causality) with linear relationship.
We do experience extreme difficulties in visualizing the behavior of interdependent
variables or the outcome of nonlinear feedback loops.
Barry Richmond, in a reference to the fact that
we have been applying the same set of non-solutions to the crucial social
problems such as drugs, poverty, crime, illiteracy and mal-distribution of
wealth for most of the last fifty years without any positive results,
concludes:
ÒThe way we think is outdated. As a result, the way we act creates
problems, and then we are ill-equipped to address them because of the way we
think.Ó (Richmond 2001 page 3)
It seems we are trapped in a vicious circle;
even our highly regarded mathematical tools are not doing the job.
Stephen Wolfram has a similar observation: ÒThe idea of describing behavior in
terms of mathematical equations works well where the behavior is fairly
simple. It almost inevitably fails
whenever the behavior is more complex.
Degree of difficulty encounter in mathematical representation of a
phenomenon increases exponentially by the degree of its complexity. Indeed, there are many common phenomena
about which theoretical science has had remarkably very little to say.Ó (Wolfram, 2002, chapter 1 page 3)
He
then demonstrates how systems too complex for traditional mathematics could yet
obey simple operational rules and how remarkably simple iterative algorithms capture the essential characteristics of natureÕs mysterious ability to
produce complex phenomena so effortlessly.

Furthermore,
analytical thinking has very little to say about: life, love, happiness,
success, and many other important emergent properties that do not yield to any
one of the five senses. Emergent
properties are Properties of the whole, product of the interaction of the
parts, outcomes of dynamic processes produced online real-time.
Systems
Methodology
I have found
the Interactive design, the centerpiece of AckoffÕs systems methodology to be a
perfect platform to integrate and use the critical contributions that three
other contemporary conceptions have to offer, In my experience, the depth and richness of Interactive
Design, the beauty and magic of
Iteration of Context, Structure,
Function & Process when combined with the
dynamic power of Operational
Thinking, and
understanding the implication of Self-organization create a competent and
exciting systems methodology that goes a long way in dealing with emerging
challenges of seemingly complex & chaotic socio-cultural systems.

Distinctive claim of systems
thinking is ability to see the whole.
But contrary
to a widely held belief, the popular notion of a multi-disciplinary approach is
not a systems approach. In fact,
the ability to synthesize separate findings into a coherent whole seems far
more critical than the ability to generate information from different
perspectives. Analytical thinking
assumes that understanding structure
is sufficient to understand a system.
For synthetic thinking function is the key for seeing the
whole. The dynamic thinkers on the other hand, looks to the process, the how question, for the
necessary answer to define the whole.
It is my contention that structure, function, process represent three
aspects of the same thing and with the containing environment form a
complementary set. Together they
define the whole or make the understanding of the whole possible. Structure defines components and their
relationships; function defines the outcomes; and finally, process explicitly
defines the sequence and dynamic interactions of activities that produce the
outcome.
A
set of interdependent variables forms a circular relationship. Each variable co-produces the others
and in turn is co-produced by the others.
Which one comes first is irrelevant because none can exist without the
others. They have to happen all at
the same time. To fail to see the
significance of these interdependencies is to leave out the most important
aspect of the challenge.
Therefore, to handle them holistically requires understanding each
variable in relation to the others in the set at the same time.
This demands an iterative
inquiry.

On the other
hand, multi-loop nonlinear feedback systems that according to chaos theory
exhibit chaotic behavior are integral part of our current reality. However, there is order in this
Chaos. They seem to produce
particular patterns of behavior.
Discovering these patterns is the key for recognizing the ÒSecond Order
MachineÓ (the attractor in action) that is locking the system into its existing
pattern. In this context,
Operational thinking is an ingenious way to overcome the difficulties
encountered in constructing and simulating mental models for discovering these
patterns of behavior.
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Finally words of wisdom from
Donnelly Meadows:
ÒSelf-organizing, nonlinear, feedback systems are inherently
unpredictable. They
can't be controlled, but they can be re-designed.Ó ÒBefore disturbing a self-organizing
system, watch how it behaves.
Study its beat. Watch it
work. Learn its history.Ó ÒDirect your thoughts to dynamic, not
static analysis—not only to Ôwhat's wrong?Õ but also to Ôhow did we get
there?Õ (Meadows 2001, page 1-3)
References
Ackoff R.L., Creating
the Corporate Future, John Wiley New York 1981
Capra
Fritjof, The Hidden Connection,
Doubleday New York 2002
Gharajedaghi
Jamshid, Systems Thinking: Managing Chaos
and Complexity, A Platform for Designing Business Architecture, 2nd Edition, Elsevier, New York 2006,
Gleick,
James, CHAOS: Making a New Science. Viking Penguin Inc: New York, 1987.
Kauffman,
Stuart, At Home in the Universe,
Oxford University Press, New York: 1995.
Maturama
Humberto, and Varela Francisco, Autopoiesis and Cognition, D.Reidel, Dordrecht, Holland 1980.
Meadows Donella, Dancing with
Systems: What to do when systems resist change; an excerpt from her
unfinished last book (she died in spring 2001). Whole Earth Winter 2001
Richmond, Barry, An Introduction to Systems Thinking, STELLA, High Performance
Systems, Inc, 2001.
Wolfram Stephen. New
Kind of Science Canada: Wolfram Media inc., 2002.