Welcome to the new
Omega Field website. The
intention of this site is to provide an in depth resource concerning
everything related to Complex Dynamical
Systems Science, CDS. Along the left side of this page, you will
find links to the various areas of this site. Currently, we are
in the initial stages of uploading content to the site, and we encourage
you to check back for updates and new additions. Active sections include the Omega Field Library and the Pioneers of Complexity pages.
Although the science of Complex Systems is becoming more familiar
with many people today, there is a lack of understanding about exactly
what this field represents, and if it is actually useful or just
another passing fad. It is important to understand that CDS
is not just another academic field. On the contrary, Complex
Systems Science represents a revolutionary transformation in the
cognitive map of the human species. In other words, this is
a transformation not solely regarding what we think about, but how
we think about it.
Properly defining the science of Complex Systems,
also referred to generally as Complexity, can be difficult because
it means many things to various groups of people depending on their
background. The reason for this is that the current understanding
of Complexity is actually a convergence of all fields of human knowledge. It
is important to understand that the foundation of CDS is based in
mathematics, specifically dynamical systems theory (chaos theory),
but other fields such as physics, biology, computer science, sociology,
and psychology are also extremely relevant.
The most basic definition of Complexity can be summed up as the
study of whole systems. The fundamental concept relates to the
emergence of nonlinear global dynamics for a group, or network, of
interconnected systems. Each
node within this type of network is usually a nonlinear dynamical system
with any number of dimensions, but typically more than two.
In
practice, it is usually impossible to solve for these types of systems
using classical analytical mathematics such as calculus. Therefore,
new methods are required which exploit the number crunching power
of today's computers. However, before we can go about using
computational mathematics to find solutions for these types of systems,
it is necessary to have an appropriate conceptual framework and
to actually build new mathematical models which are broad enough
to include systems of immense complexity.
In the process of building new models of complex dynamical behavior, it becomes necessary to integrate tools and concepts from many diverse fields of research. The previous image is a representation of how these fields are interconnected. Also, the many nodes on this network mirror the content structure and focus of this website.
On behalf of the omega field research institute, I would like to thank
you for visiting our website, and we hope this compilation of information
serves to increase our collective understanding and appreciation for
the complex systems everywhere around us, including our own bodies
and minds.