From There to Here
Evolutionary Learning Community
Evolutionary Systems Design
Conclusion
About the Authors
Endnotes
Learning to Become: Creating Evolutionary Learning Community through Evolutionary Systems Design
by Kathia C. Laszlo and Alexander Laszlo
From There to Here When we think of the kind of future we wish to bequeath to future generations, we imagine one in which we finally have found ways to live in harmony with each other and the other inhabitants of this planet and are consciously and ethically engaged in the most fascinating explorations of our human potential. This is our vision of a “sustainable and evolutionary future.” By sustainability we mean the capacity to maintain the viability of the biosphere since, without it, neither healthy life nor healthy societies are possible. Evolution, as we are using the term, implies the conscious capacity to unfold into new ways of self-organization that allow for a fuller expression of the creative potential of the universe of which we are part. In this sense, sustainability is as a necessary but not sufficient condition for an evolutionary future. But combined, these two features provide a powerful attractor1 for the ethical co-creation of desirable futures.
We have a lot to learn to bring about a sustainable and evolutionary future. But unless we learn to learn in new ways, we will not be able to transcend the interrelated set of global problems facing us today. By recognizing that we cannot create a new society with the same ways of thinking that got us here, the authors have focused their work on envisioning a new form of education dedicated to the development of the competencies and sensitivities for individuals and groups to purposefully design experiences of community that are learning oriented, self-empowering, environmentally sustainable, and evolutionary. We call this new form Evolutionary Learning Community (ELC). In our search for disciplined, creative, and participatory forms of learning, research, design, and action that facilitate the emergence of ELC, we have also developed an approach that we call Evolutionary Systems Design (ESD).
In contrast to other social change approaches that project the present into the future, ESD seeks to transcend current realities by engaging in the creation of an ideal image of education — ELC — by which to guide collective self-development efforts. That is why, rather than exploring ways of going “from here to there,” ESD explores ways of getting “from there to here.” Evolutionary Learning Community
Evolutionary Learning Community (ELC) is an ideal image of a future educational system. The three interrelated concepts that comprise the ELC construct (evolution, learning, and community) make explicit the key assumptions and aspirations underlying this image of education:
- It is a community based educational system. Rather than functioning on the assumption that we need to go to school to learn, to work to be productive, and “away” to enjoy and have fun, ELC suggests the integration of work, learning, and enjoyment throughout life (i.e., intergenerational learning) in all our communities (e.g., family, neighborhood, organizations).
- It is a learning oriented education, rather than a teaching based one. Its focus is life-long learning and the development of human potential.
- It promotes self-directed, flexible, ongoing collaborative learning through learning community. This is not simply collective individual learning, but synergistic collaborative learning: learning content issues together while at the same time learning process issues about how to be community.
- It seeks alignment with the evolutionary processes of which we are a part and empowers people to participate in conscious evolution.
Evolution
Evolution, both as a scientific theory and as a universal myth, is a powerful story for the transformation of consciousness and society2 — a story of the leaps and bounds of systems3 of all kinds from simpler to more complex forms of organization. The evolutionary process manifests a dynamic pattern of differentiation and integration which is starting to be comprehended through the new sciences of complexity.4 The appreciation of the general evolutionary process allows us to see the evolutionary history of our species in a broader context and thereby to better understand our role in it. Eric Chaisson believes that “an appreciation and understanding of evolution ... can provide a map for the future of humanity,”5 and Mihaly Csikszentmihalyi concurs, noting that “in order to make choices that will lead to a better future, it helps to be aware of the forces at work in evolution.”6 The development of the sciences of complexity has produced “the beginnings of a general theory of evolution that covers everything from molecules to humankind.”7 From this perspective, evolution is conceived as irreversible change that moves a system further and further from the inert state of thermodynamic and chemical equilibrium.8 The process involves periods of dynamic stability (homeostasis), and when this stability can no longer be maintained, the system enters a period of turbulence — signaling a bifurcation9 — when it transcends (self-organizes) into a larger whole with a higher level of organization, structural complexity, dynamism and autonomy. In this way, open systems become more complex and dynamic, more self-directed and able to influence their environment, as they move further and further from thermodynamic and chemical equilibrium.10 This conception of evolution describes an order-producing universe, and according to Sally Goerner, has dramatic implications for human beings because, like the Copernican revolution, it creates a radical change of perspective ... It denies classical science’s image of a sterile mechanical universe of directionless colliding particles and accidental life. The Copernican revolution showed that we were not at the center of the universe. The nonlinear revolution shows that we are embedded in a deep, creative, and directed process that is the physical universe. We are part of something much larger, more coherent and more miraculous than just ourselves.11
Learning
Community
Evolutionary Learning
Figure 1.
The evolutionary learning framework of ESD
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1. |
The notion of an “attractor” as used here derives from the study of non-linear dynamical systems (as through chaos theory). It indicates “a pattern of behavior that a system moves toward over time ... [whose] output never repeats but no point [of which] falls outside a limiting shape. ... attractors show how a complex system may have endlessly unique behavior that is nevertheless clearly ordered. The long-term behavior of the system is non-repeating yet attracted to a clear form” (Goerner, Sally, 1994. Chaos and the evolving ecological universe. Langhorne: Gordon and Breach, p. 212). |
2. |
Feinstein, David and Stanley Krippner, 1988. Personal mythology: The psychology of your evolving self. New York: Jeremy Tarcher, pp. 212-213. |
3. |
A system is an interconnected whole that is structurally divisible but functionally indivisible. In other words, it cannot be separated into its component parts without destroying the essential properties of the system. For instance, the molecules of hydrogen and oxygen in water, when separated, loose the property of “wetness” present only when H2O is a system. Systems are more patterns than things. Molecules, organisms, societies, and the solar system are all examples of systems. |
4. |
The sciences of complexity deal with chaos, self-organization, and new understandings of evolution. Among them are: general system theory, cybernetics, nonequilibrium thermodynamics, autopoietic systems theory, chaos theory, and dynamical systems theory. |
5. |
Chaisson, Eric, 1987. The life era: Cosmic selection and conscious evolution. New York: W.W. Norton, p. 200. |
6. |
Csikszentmihalyi, Mihaly, 1993. The evolving self: A psychology for the third millennium. New York: Harper Collins, p. 4. |
7. |
Op. cit., Goerner, 1994, p. 20 |
8. |
There are three thermodynamic and chemical systems states: at equilibrium, near equilibrium, and far from equilibrium. The first is an inert state, for example, a closed box with equally distributed gas from which no energy can be generated. The second is the state of things that tend to run down (as per Newton’s second law of thermodynamics), like a car which needs constant maintenance and gasoline to continue to function. The third state is characteristic of systems that work against the second law: rather than running down, they complexity, like living systems which grow and evolve. |
9. |
A bifurcation is a period of indeterminacy in the evolutionary trajectory of a system characterized by turbulence and organizational instability when, because of changes in either its internal or external environment, it transcends its current functional structure and self-organizes at a new level of organization (a new dynamic regime) that is re- establish a new state of dynamic equilibrium or flowing balance. Inability to do so — that is, to reach a new dynamic regime — implies devolution and possibly extinction. |
10. |
Laszlo, Ervin, 1996. Evolution: The general theory. New Jersey: Hampton Press, p. 12. |
11. |
Op. cit., Goerner, 1994, p. 21 |
12. |
Laszlo, Ervin, 1994. The choice: Evolution or extinction? New York: Tarcher/Putman, p. 1. |
13. |
Einstein, A. and Russell, B., 1957. The Pugwash manifesto. Proceedings of the First World Conference on Science and World Affairs. Pugwash, Nova Scotia. |
14. |
Banathy, Bela H. 1996. Designing social systems in a changing world. New York: Plenum, p. 318. |
15. |
Capra, Fritjof, 1996. The web of life: A new scientific understanding of living systems. New York: Anchor books. |
16. |
Op. cit., Banathy, 1996, pp. 318-319 |
17. |
Laszlo, Kathia C. and Alexander Laszlo, 1997. “Partners in life — Syntony at work.” Proceedings of the Ninth International Conversation on the Comprehensive Design of Social Systems. Pacific Grove: ISI, p. 6. |
18. |
Peck, M. Scott, 1987. The different drum: Community building and peace. New York: Simon and Schuster, p. 239. |
19. |
McCormick, S.; François, C.; Laszlo, A.; Laszlo, K.; and Nanay, B., 1998. “Designing sustainable evolutionary learning communities.” Proceedings of the Ninth Fuschl Conversation. Austria: Austrian Society for Cybernetic Studies. |
20. |
Richards, Ruth, 1993. “Seeing beyond: Issues of creative awareness and social responsibility.” Creativity Research Journal, 6(1&2), p. 168. |
21. |
See Senge, Peter M., 1990. The fifth discipline: The art and practice of the Learning Organization. New York: Doubleday Currency; Senge, P.M., A. Kleiner, C. Roberts, R. Ross, G. Roth, and B. Smith, 1999. The dance of change — The challenge to sustaining momentum in a Learning Organization. New York: Currency/Doubleday; Caine, Renate, and Geoffrey Caine, 1997. Education on the edge of possibility. Alexandria, VA: ASCD. |
22. |
Laszlo, Kathia C., and Alexander Laszlo, 1995. “Building a design culture through Evolutionary Leaning Communities.” Proceedings of the Seventh International Conversation on the Comprehensive Design of Social Systems. Pacific Grove, CA: ISI. |
23. |
Laszlo, Alexander, and Stanley Krippner, 1998. “Systems theories: Their origins, foundations, and development.” In Jordan, J.S. (ed.), System theories and a priori aspects of perception. Amsterdam: Elsevier. |
24. |
Montuori, Alfonso, 1989. Evolutionary competence: Creating the future. Amsterdam: J.C. Gieben, p. 27. |
25. |
Op. cit., B.H. Banathy, 1996. |
26. |
Op. cit., E. Laszlo, 1996. |
27. |
Elias, Dean, 1998. “It’s time to change our mind: An introduction to tranformative learning.” ReVision. 20(1). |
28. |
Salner, Marcia, 1996. A new framework for human science. Saybrook Perspectives. San Francisco: Saybrook Institute, p. 8. |
29. |
Op. Cit., E. Laszlo, 1996, p. 139. |
30. |
Milbrath, Lester W., 1989. Envisioning a sustainable society: Learning our way out. New York: SUNY, p. 94. |