Organisations, Innovation and Complexity:
New Perspectives on the Knowledge Economy
University of Manchester
9-10th September 2004
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Complex Activity Networks - A Dialogue between a Complex Systems
Mathematical Model and a Cultural-Historical Activity Theoretical
Approach - Practical Applications for Innovative Practices
C. Rose-Anderssen & P.M. Allen
chrirose@online.no
p.m.allen@cranfield.ac.uk
Complex Systems Management Centre,
Cranfield University, UK
Abstract
In this presentation we review some relevant parts
of complexity, and demonstrate how it can provide a basis for
understanding evolving networks. It concerns itself not only with
the visible, measurable evidence of business activity that is
actually occurring, but also with the complex system that lies
behind this. Actual activity results from choices and decisions
that are taken with limited and local knowledge, and gives rise
to emergent behaviour and properties for the system as a whole.
What matters for a regional economy therefore, is
not necessarily the optimisation of a particular process or activity
but the success of the emergent system of activities, supply chains
and design choices. Any single decision must be made with incomplete
information, and the present is always therefore a focus of uncertainty,
in which the consequences of actions cannot be perfectly known.
The paper briefly presents and discusses models
that explore what must occur when we allow for the inherent heterogeneity
of the agents or entities instead of making the homogenising assumptions.
The presentation takes part in two ways simultaneously,
one way through the basis of mathematical modelling and the other
through activity theory. Thus a presentation of complexity compared
through ‘hard’ science and through social science
and the usefulness of engaging these two perspectives into a dialogue
is discussed.
To grasp a comprehensive understanding of complexity
the authors argue that the application of complex systems modelling
and activity theory are complementary. Thus it is not about creating
a new synthetic theory but rather about enhancing understanding
by viewing each theory from the position of the other.
It is demonstrated that providing there is an exploration
of possible behaviours, which there will be in any real system
as a result of error-making or micro-heterogeneity, then inevitably
communities and complexes of distributed “intelligence”
will be formed where the components display synergetic behaviour
leading to emergent attributes and performances. It leads to a
system with distributed intelligence.
It is demonstrated that freedom for diversity and
expansive learning are fundamental characteristics of innovative
processes.
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