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Untitled - socium.ge Untitled - socium.ge
Why information should influence productivity 161exists between the information considered in transitioning between processesand the flexibility of response. Contingency and coordination theoristsconsider the properties of specific coordination strategies by identifying andanalyzing trade-offs that arise in managing the hand-offs or interdependenciesbetween activities (Lawrence and Lorsch, 1967; Thompson, 1967;Galbraith, 1973; Malone and Crowston, 1994), while knowledge andresource-based theorists argue that the difficulty of replicating tacit aspects ofcoordination generates sustainable advantages in efficiency (Kogut andZander, 1992, 1996; Conner and Prahalad, 1996; Barney, 2001). Statedformally as a hypothesis:Hypothesis 7c: Coordinating information improves the efficiency of existingprocesses by reducing the number of bad hand-offs and improvingresource utilization rates.Data in the recruiting context are inconclusive. Survey responses for thosewho used technology principally for coordination, as measured by schedulingand calendaring, appeared weakly less successful in terms of completion ratesthan those who also used database and search technologies. An absence of dataon those who barely used either technology prevents better comparisons. Thegroup using neither is represented largely by a handful of the oldest and mostsenior partners who also had staff perform these activities on their behalf.Comparisons between those who use coordination technologies alone andthose who do not are therefore difficult to construct.An example of the importance of coordinating information is the bullwhipeffect observed in the “beer game.” This is a well-known supply-chain problemin which the volatility of demand and inventories becomes amplified thefurther one looks upstream from the consumer (Fine, 1998; Sterman, 2000).Knowledge of this effect suggests ways to increase efficiency by compensatingfor lags in feedback or investing in information gathering that providesmissing links in the chain between the supplier and the customer.Volatility problems and nonlinear systems provide examples in whichsimulation modeling is particularly effective in helping formulate strategiesthat are robust to system dynamics. In modeling, tacit conceptualizations ofdesign problems are made explicit (Sterman, 2000). Simulations increase thepotential for intra-organizational information sharing by acting as a boundaryobject between distinct communities of practice (Brown and Duguid, 1998;Wenger, 1998). Simulations also increase favorable conditions for learningabout problem structure by lowering the costs of learning and promoting feedback(Conlisk, 1996). Better decisions may result from a better sense ofcomplex interrelationships between factors or a sense of the distribution fromwhich outcomes are drawn as opposed to a particular draw sampled fromexperience (March et al., 1991; Cohen and Axelrod, 2000). Stated formally asa hypothesis:
162 Marshall Van Alstyne and Nathaniel BulkleyHypothesis 8: Simulation and modeling help decision-makers more accuratelyidentify leverage points within dynamic systems and reduce the cost ofexploring alternative courses of action. They boost productivity by reducingwasted resources and creating new options.No firm within the empirical study performed any simulation modeling.Data mining, to the extent that it happened at all (cf. hypothesis 9 on informationsearch), was limited to market trend analysis. The firm performing themost trend analysis was also the firm having more routine information practicesand had the highest per capita revenues.INFORMATION FLOWS AND NETWORK TOPOLOGIESOrganizational information management practices can also be analyzed byconsidering information flows and topologies. A network perspective is notspecific to either the Bayesian or computational models. However, it cancomplement these frameworks by focusing on the economic importance ofinformation in contexts involving search and deliberation.Search is a process of scanning for news of the unknown or generatingcourses of action that improve on known alternatives. Search grows in importancewhen actors cannot independently or through market mechanisms meetobjectives in a cost-effective manner. Deliberation occurs when exchange iscontemplated with unfamiliar partners or when evaluating untried courses ofaction. Deliberation grows in importance with the perception that potentialdownside effects of a decision miscalculation can be large and costly toreverse (Rangan, 2000).Economic treatments of search typically focus on identifying optimal stoppingpoints given uncertainty in parametric distributions (Stigler, 1961;Diamond, 1989), while computational treatments emphasize algorithmic efficiency.A third factor focuses on the role of information flows and networktopologies when search or deliberation are problematic (Watts et al., 2002).Structuring a solution space optimally involves grouping the possiblechoices into well-balanced groups or trees such that, starting from scratch, aset of well-asked questions can identify all choices in the lowest average time.In searching for job candidates, for example, criteria ought to cover all necessaryattributes while not placing everyone in the same large pool. One wouldalso not waste time by interviewing the weakest candidates first. If the criteriafor search cannot be articulated in advance, then the problem itself is unstructured.Search then involves sampling broadly to discover important criteriabefore structuring the solution.Hypothesis 9a: Efficient information search relies on structuring a solutionto provide a balanced index, sorting choices to provide best options first, and
- Page 132 and 133: The Internet in China 111“network
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- Page 142 and 143: The Internet in China 121Bu, Wei (2
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- Page 167 and 168: 146 Marshall Van Alstyne and Nathan
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- Page 197 and 198: 176 Chris BennerLABOR AND FLEXIBILI
- Page 199 and 200: 178 Chris BennerFlexibility in Work
- Page 201 and 202: 180 Chris Bennerservices means that
- Page 203 and 204: 182 Chris BennerTable 7.2Indicators
- Page 205 and 206: 184 Chris BennerThis service is oft
- Page 207 and 208: 186 Chris Bennerof human resource a
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- Page 213 and 214: 192 Chris BennerFlexible labor mark
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- Page 217 and 218: 196 Chris BennerLave, Jean and Weng
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- Page 221 and 222: 200 Caitlin Zaloomthe bids and offe
- Page 223 and 224: 202 Caitlin Zaloomexchange, the bro
- Page 225 and 226: 204 Caitlin Zaloomrecently, the log
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Why information should influence productivity 161exists between the information considered in transitioning between processesand the flexibility of response. Contin<strong>ge</strong>ncy and coordination theoristsconsider the properties of specific coordination strategies by identifying andanalyzing trade-offs that arise in managing the hand-offs or interdependenciesbetween activities (Lawrence and Lorsch, 1967; Thompson, 1967;Galbraith, 1973; Malone and Crowston, 1994), while knowled<strong>ge</strong> andresource-based theorists argue that the difficulty of replicating tacit aspects ofcoordination <strong>ge</strong>nerates sustainable advanta<strong>ge</strong>s in efficiency (Kogut andZander, 1992, 1996; Conner and Prahalad, 1996; Barney, 2001). Statedformally as a hypothesis:Hypothesis 7c: Coordinating information improves the efficiency of existingprocesses by reducing the number of bad hand-offs and improvingresource utilization rates.Data in the recruiting context are inconclusive. Survey responses for thosewho used technology principally for coordination, as measured by schedulingand calendaring, appeared weakly less successful in terms of completion ratesthan those who also used database and search technologies. An absence of dataon those who barely used either technology prevents better comparisons. Thegroup using neither is represented lar<strong>ge</strong>ly by a handful of the oldest and mostsenior partners who also had staff perform these activities on their behalf.Comparisons between those who use coordination technologies alone andthose who do not are therefore difficult to construct.An example of the importance of coordinating information is the bullwhipeffect observed in the “beer game.” This is a well-known supply-chain problemin which the volatility of demand and inventories becomes amplified thefurther one looks upstream from the consumer (Fine, 1998; Sterman, 2000).Knowled<strong>ge</strong> of this effect sug<strong>ge</strong>sts ways to increase efficiency by compensatingfor lags in feedback or investing in information gathering that providesmissing links in the chain between the supplier and the customer.Volatility problems and nonlinear systems provide examples in whichsimulation modeling is particularly effective in helping formulate strategiesthat are robust to system dynamics. In modeling, tacit conceptualizations ofdesign problems are made explicit (Sterman, 2000). Simulations increase thepotential for intra-organizational information sharing by acting as a boundaryobject between distinct communities of practice (Brown and Duguid, 1998;Wen<strong>ge</strong>r, 1998). Simulations also increase favorable conditions for learningabout problem structure by lowering the costs of learning and promoting feedback(Conlisk, 1996). Better decisions may result from a better sense ofcomplex interrelationships between factors or a sense of the distribution fromwhich outcomes are drawn as opposed to a particular draw sampled fromexperience (March et al., 1991; Cohen and Axelrod, 2000). Stated formally asa hypothesis: