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Science, Strategy and War The Strategic Theory of ... - Boekje Pienter

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processes are maintained simultaneously. During a crisis onset a course <strong>of</strong> action is agreedupon only after intense debate concerning the appropriate theory. In this way complexinteractions which might have been overlooked when seen from one perspective are takeninto account.Finally this view posits that reliability will be enhanced, <strong>and</strong> the effects <strong>of</strong> futurefailures diminished, through organizational learning through real world practice <strong>of</strong> trial <strong>and</strong>error, training, simulation while improving st<strong>and</strong>ards accordingly 108 . Complexity, however,may limit the effectiveness <strong>of</strong> them. Learning for instance from complex past events is ahighly ambiguous activity 109 . What happened because <strong>of</strong> what, is a most difficult questionwhen the effects occur delayed, in various <strong>and</strong> unexpected dimensions, because <strong>of</strong> the nonlinear interaction <strong>of</strong> failures <strong>and</strong> feedbacks <strong>of</strong> failures through multiple parts <strong>of</strong> a system.Likewise, in complex systems there may not be sufficient time to confer <strong>and</strong> agree on theproper course <strong>of</strong> action, making the option conceptual slack perhaps counterproductive.Redundancy may also enhance complexity if redundant parts, or processes, are located neareach other, in place or in time. One big blow may obliterate both, or if redundancy creates adependency on one contingent factor, it creates an extra liability <strong>and</strong> thus increasescomplexity. <strong>The</strong> two identical O-rings that failed in the Space Shuttle in 1986 both relied onoutside atmospheric conditions not exceeding certain identical limits. When they did, bothrings failed.This leaves the question concerning organization. Perrow discusses the questionabout centralization versus decentralization <strong>and</strong> concludes that both have merit for reducingrisk, enhancing reliability while accomplishing the job, but which one is appropriate dependson the level <strong>of</strong> coupling <strong>and</strong> complexity. Perrow argues that loosely coupled complexsystems such as universities generally allow a distinctly wide degree <strong>of</strong> decentralization.Perrow argues that complexity requires that those at the point <strong>of</strong> disturbance are free to interpret thesituation <strong>and</strong> take corrective measures, because that is where the incident is first noted, a view very close toBoyd’s. <strong>The</strong>y should be allowed to diagnose the situation <strong>and</strong> take steps to contain theproblem before the effects spread to other parts <strong>of</strong> the system. Because the interactions areloosely tight, there is time to develop a coherent picture <strong>and</strong> appropriate responses. Togetherwith non-directive modes <strong>of</strong> synchronization <strong>and</strong> coordination, such as informal processes,shared culture, shared pr<strong>of</strong>essional ethos, stable interaction patterns, slack <strong>and</strong> buffers,decentralization will allow a sufficient degree <strong>of</strong> control <strong>and</strong> sufficient failure recoverypotential. <strong>The</strong>se element appear in Boyd’s work on comm<strong>and</strong> <strong>and</strong> control.On the other h<strong>and</strong> when a system is linear <strong>and</strong> tightly coupled, centralization isrequired because the situation is fully the mirror image <strong>of</strong> complex but loosely coupledsystems. Failures will result in predictable <strong>and</strong> visible effects. Responses can be preprogrammed,<strong>and</strong> rehearsed by all concerned, <strong>and</strong> subsequently initiated <strong>and</strong> controlled fromthe central authority. Top level detailed control <strong>and</strong> monitoring, <strong>and</strong> lower level meticulousobedience is required because response times need to be minimal <strong>and</strong> the response precise.Subsequently there is hardly room for lower level deviation/adjustment.Linear <strong>and</strong> loosely coupled systems can operate on either control set up.Centralization is possible because <strong>of</strong> linearity, decentralization is feasible because <strong>of</strong> the loosecoupling. A special problem is the class <strong>of</strong> complex <strong>and</strong> tightly coupled systems, which also108 Ibid, p.17.109 Ibid, p.19. See also Jervis (1997). For a well known example <strong>of</strong> complex effects from the militaryhistory see the debate on 'the effectiveness' <strong>of</strong> the strategic bombing campaigns during WW II inRichard Overy, <strong>The</strong> Air <strong>War</strong> 1939-1945 (New York, 1981); or Richard Overy, Why <strong>The</strong> Allies Won(London 1995), Chapter 4, or James Roche <strong>and</strong> Barry Watts, ‘Choosing Analytic Measures’, Journal <strong>of</strong><strong>Strategic</strong> Studies 14 (June 1991), p. 176.150

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