I have been interested by all forms of complexity and self-organization since my childhood. I was always a keen observer of nature, being fascinated by complex phenomena such as ants walking apparently randomly across a branch, the cracks that would appear in drying mud, or the frost crystals that would form on grass during winter nights. As an adolescent, one of my hobbies was keeping aquariums, in which I would try to build a miniature ecosystem complete with soil, plants, invertebrates, and fish. The fish would still need to get food from time to time, and I still had to clean the filter that would collect the dirt they produced, but ideally I would have liked to create a system that is completely autonomous, and is able to sustain itself even in the absence of a caretaker. That would have required more plant life to sustain the food chain, and especially less fish to produce waste products, so it would have made the aquarium less interesting to look at. Therefore, I did compromise in practice. But in my imagination, I was fascinated by what I called “a little world on its own”. In my present scientific vocabulary, I would define this idea as a system that is complex and self-organizing to such a degree that it could be viewed almost as a separate, autonomous universe. (Later I discovered a similar idea in the science fiction stories of Stanislaw Lem, a Polish author influenced by cybernetics.) My fascination for rocks, plants, animals and other phenomena of nature also found an outlet in my early inquiry into the theory of evolution. Like most children nowadays, I had been exposed from an early age to pictures and stories about dinosaurs. The difference, perhaps, is that my grandfather who had collected or drawn these pictures for me was rather scientifically minded, although he was just a primary school teacher. He taught me not only their Latin names, such as Brontosaurus, Triceratops and Tyrannosaurus Rex, but also about the periods in which they lived, and the kinds of creatures that preceded and followed them in the course of natural history. So, from an age of eight or so, I was well aware that life on Earth had evolved, and that plants and animals looked very different in different time periods. As I became a little older, I started reading introductory books on biology, which explained the mechanism of natural selection behind this evolution. This idea became one of the two fundamental principles on which I have based my scientific worldview. As an adolescent, this mechanism seemed so obvious to me that I was quick to generalize it to other domains, noting that for example ideas and societies also evolved through variation and selection. I called this “the generalized principle of natural selection”. Much later, while working on my PhD, I came into contact with other scientists (in particular the great Donald T. Campbell and his disciples Gary Cziko and Mark Bickhard) who had developed a similar philosophy, which they called “selectionism” or “universal selection theory”. Its basic assumption is that all complex
[1]
Carlos Gershenson,et al.
Complexity and Philosophy
,
2006,
ArXiv.
[2]
W. Ross Ashby,et al.
Principles of the Self-Organizing System
,
1991
.
[3]
M. Mitchell Waldrop,et al.
Complexity : the emerging science and the edge of order and chaos
,
1992
.
[4]
John H. Holland,et al.
Hidden Order: How Adaptation Builds Complexity
,
1995
.
[5]
Ilya Prigogine,et al.
Order out of chaos
,
1984
.
[6]
I. Prigogine,et al.
Order out of chaos
,
1984
.
[7]
Francis Heylighen,et al.
Publications on complex, evolving systems: A citation-based survey
,
1997,
Complex..
[8]
Carlos Gershenson,et al.
How can we think the complex
,
2004,
nlin/0402023.
[9]
S. Kauffman.
At Home in the Universe: The Search for the Laws of Self-Organization and Complexity
,
1995
.
[10]
Francis Heylighen,et al.
The Science of Self-Organization and Adaptivity
,
1999
.