Krohs_00_Pr.indd

(Jacob Rumans) #1

Technical Artifacts, Engineering Practice, and Emergence 291


combining the view of complete epistemic access to emergent causal powers with the idea of ontological
emergence?



  1. Kim (1999) makes a similar remark about designing systems with phenomenal experiences: “But it is diffi -
    cult to imagine our designing novel devices and structures that will have phenomenal experiences; I don’t think
    we have any idea were to begin. The only way we can hope to manufacture a mechanism with phenomenal
    consciousness is to produce an appropriate physical duplicate of a system that is known to be conscious. Notice
    that this involves inductive prediction, whereas theoretical prediction is what is needed to design new physical
    devices with consciousness.”

  2. For the epistemic reduction relation alone, Van Gulick (2001, p. 15) mentions fi ve possibilities.

  3. Note that the “in principle” clause decouples this type of nonpredictability from a knowing subject or a
    knowledge base. For an interesting discussion of various forms of in-principle nonpredictability, see Stephan
    (2002).

  4. Can the function of an object be predicted? Here we take the prediction of the function to mean the predic-
    tion of the use of that object corresponding to that function.

  5. This example, by the way, makes clear that the two criteria for epistemic emergence, nonpredictability and
    nonexplainability, may become intertwined.

  6. There is no generally accepted model for an explanation of the technical function of an object; the notion
    of an explanation of a technical function used here is of a rather intuitive kind.

  7. This observation also holds if the following defi nition of weak emergence, one proposed by Chalmers (2002),
    is adopted: “Emergence is the phenomenon wherein a system is designed according to certain principles, but
    interesting properties arise that are not included in the goals of the designer.”

  8. These two forms of emergent features derive from an ambiguity in the notion of “novel” in the general
    characterization of emergence; “novel” may be taken to mean novel in time, or novel with respect to the proper-
    ties of the emergence base.

  9. The only exception may be the engineering of sociotechnical systems. The expression “sociotechnical
    system” refers to complex, large-scale systems such as air transport systems or electric energy supply
    infrastructures. The behavior of these systems is driven in a signifi cant way by their technical elements, but the
    functioning of the whole system depends as much on the functioning of these technical components as on
    the functioning of the social infrastructure and the behavior of human actors. Sociotechnical systems are
    hybrid systems consisting of elements of various kinds, such as natural objects, technical artifacts, and human
    actors and social entities (together with the rules and laws governing the behavior of human actors and social
    entities). The design and control of sociotechnical systems raises fundamental issues for the traditional control
    paradigm, since the system to be designed and/or controlled contains elements that may change the system from
    within.


References


Bertuglia, C. S., and Vaio, F. (2005). Nonlinearity, Chaos, and Complexity: The Dynamics of Natural and Social
Systems. Oxford: Oxford University Press.
Boogerd, F. C., Bruggeman, F. J., Richardson, R. C., Stephan, A., and Westerhoff, H. V. (2005). Emergence and
its place in nature: A case study of biochemical networks. Synthese, 145: 131–164.
Buchli, J., and Santini, C. C. (2005). Complexity engineering: Harnessing emergent phenomena as opportunities
for engineering. In: Reports of the Santa Fe Institute’s Complex Systems Summer School 2005. Santa Fe: Santa
Fe Institute.
Chalmers, D. J. (2002). Varieties of emergence. http://consc.net/papers/granada.html.
Deguet, J., Demazeau, Y., and Magnin, L. (2006). Elements about the emergence issue: A survey of emergence
defi nitions. Complexus, 3: 24–31.
Feltz, B., Crommelinck, M., and Goujon, P. (eds.). (2006). Self-organization and emergence in life sciences.
Synthese Library, Vol. 331. Dordrecht: Springer.
Humphreys, P. (1997). Emergence, not supervenience. Philosophy of Science, 64 (Proceedings): S336–S345.

Free download pdf