Suppose a rm uses capital (K) and labor (L) to produce widgets according to the production function Q = KWL\"4 = (KL)1/4, where Q is output. The goal in this problem is to nd the firm's total and marginal cost functions. In order to derive the cost function, the rst step is to nd the location of the cost-minimizing bundle on any given isoquant. To get a numerical answer, recall that the slope of an isoquant is MP|_/MPK (K is on the vertical axis). Using calculus, it can be shown that this slope formula reduces to -K/L. For example, consider the input bundle with K = 8, L = 2 on the isoquant with Q = 2 (note that 2 = 161/4 ). The formula indicates that the slope at this point is 4 = 8/2. In fact, the formula tells us that regardless of which isoquant an input bundle is on, the slope will be 4 as long as the ratio of K to L is 4:1. Similarly, the isoquant slope will be -1 whenever the ratio of K to L is 1:1. In answering the following questions, use integer values only (don't enter unneeded decimal points). 3) Suppose that the wage is $2 per hour and that capital also rents for $2 per hour. The slope of the isocost line is then equal to negative . Using resulting slope value along with the above formula for the isoquant slope, compute the rm's optimal input ratio at any cost-minimizing point (recall that the isoquant and isocost slopes are equal at a tangency point). This ratio is (enter a single integer). Now suppose that the firm wants to produce one widget (Q = 1). Using your previous result on the optimal input ratio, you can compute the input levels that the firm uses to produce this output. These levels are K = and L = . The cost of this input bundle is $ , which gives C(1) (the cost function c(Q) evaluated at Q=1). b) The costminimizing input bundle when Q = 2 has K = and L = . The cost of this bundle is , which gives C(2). c) Repeat this calculation for Q = 2,3,...,10, indicating your results below: Q K L C(Q) ALOWVOEUI-hw