A Dynamic View of the Market in .NET Generation barcode 3 of 9 in .NET A Dynamic View of the Market

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17.4 A Dynamic View of the Market generate, create uss code 39 none in .net projects ISO/IEC 18004:2000 There is ano 3 of 9 for .NET ther way to view this critical point idea that is particularly illuminating. We have been focusing on an equilibrium in which consumers correctly predict the number of actual users of the good.

Let s now ask what this would look like if consumers have common beliefs about how many users there will be, but we allow for the possibility that these beliefs are not correct.. network effects This means t Code-39 for .NET hat if everyone believes a z fraction of the population will use the product, then consumer x, based on this belief, will want to purchase if r(x)f (z) p . Hence, if anyone at all wants to purchase, the set of people who will purchase will be between 0 and z, where z solves the equation r( )f (z) = p .

Equivalently, z r( ) = z or, taking the inverse of the function r( ), z = r 1 p . f (z) (17.2) p , f (z) (17.

1). This equat ion provides a way of computing the outcome z from the shared expectation z, but we should keep in mind that we can only use this equation when there is in fact a value of z that solves Equation (17.1). Otherwise, the outcome is simply that no one purchases.

Since r( ) is a continuous function that decreases from r(0) down to r(1) = 0, such p r(0). Therefore, in general, a solution will exist and be unique precisely when f (z) we can de ne a function g( ) that gives the outcome z in terms of the shared expectation z as follows. When the shared expectation is z 0, the outcome is z = g(z), where.

p p when t barcode 39 for .NET he condition for a solution r(0) holds, and f (z) f (z) g(z) = 0 otherwise. g(z) = r 1.

Let s try th is on the example illustrated in Figure 17.3, where r(x) = 1 x and f (z) = z. In this case, r 1 (x) turns out to be 1 x.

Also, z(0) = 1, so the condition for a p r(0) is just z p . Therefore, in this example, solution f (z). g(z) = 1 p when z p , and g(z) = 0 otherwise. z We can plo t the function z = g(z) as shown in Figure 17.4. Beyond the simple shape of the curve, however, its relationship to the 45o line z = z provides a striking visual summary of the issues around equilibrium, stability, and instability that we ve been discussing.

Figure 17.5 illustrates this. To begin with, when the plots of the two functions z = g(z) and z = z cross, we have a self-ful lling expectations equilibrium: here g(z) = z, and so if everyone expects a z fraction of the population to purchase, then in fact a z fraction will do so.

When the curve z = g(z) lies below the line z = z, we have downward pressure on the consumption of the good: if people expect a z fraction of the population to use the good, then the outcome will underperform these expectations, and we would expect a downward spiral in consumption. And correspondingly, when the curve z = g(z) lies above the line z = z, we have upward pressure on the consumption of the good. This gives a pictorial interpretation of the stability properties of the equilibria.

Based on how the functions cross in the vicinity of the equilibrium z , we see that it is stable: there is upward pressure from below and downward pressure from above. On the other hand, where the curves cross in the vicinity of the equilibrium z , there is. a dynamic view of the market Outcome z z = g(z).
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