The total cost (in dollars) of manufacturing x auto body frames is C(x)=20,000+ 700x. (A) Find...

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The total cost (in dollars) of manufacturing x auto body frames is C(x)=20,000+ 700x. (A) Find the average cost per unit if 250 frames are produced. (B) Find the marginal average cost at a production level of 250 units. (C) Use the results from parts (A) and (B) to estimate the average cost per frame if 251 frames are produced. The total cost (in dollars) of producing x food processors is C(x)=2300+70x-0.1x (A) Find the exact cost of producing the 51st food processor. (B) Use the marginal cost to approximate the cost of producing the 51st food processor. The total cost (in dollars) of manufacturing x auto body frames is C(x) 20,000+800x. (A) Find the average cost per unit if 80 frames are produced. (B) Find the marginal average cost at a production level of 80 units. (C) Use the results from parts (A) and (B) to estimate the average cost per frame if 81 frames are produced. The price p (in dollars) and the demand x for a particular clock radio are related by the equation x = 5000 - 50p. (A) Express the price p in terms of the demand x, and find the domain of this function. (B) Find the revenue R(x) from the sale of x clock radios. What is the domain of R? (C) Find the marginal revenue at a production level of 3300 clock radios. (D) Interpret R'(4800) = -92.00. The price-demand equation and the cost function for the production of table saws are given, respectively, by x = 6,000 -20p and C(x) = 112,000 + 70x, where x is the number of saws that can be sold at a price of Sp per saw and C(x) is the total cost (in dollars) of producing x saws. Complete parts (A) through (1) below. Let p = 22 - x and C(x) = 253 +5x, where x is the number of garden hoses that can be sold at a price of $p per unit and C(x) is the total cost (in dollars) of producing x garden hoses. (A) Express the revenue function in terms of x. (B) Graph the cost function and the revenue function in the same viewing window for 0 x484. Use approximation techniques to find the break-even points. Use the four-step process to find f'(x) and then find f'(1), f'(2), and f'(3). f(x) = 3x 6+x The total cost (in dollars) of manufacturing x auto body frames is C(x)=20,000+ 700x. (A) Find the average cost per unit if 250 frames are produced. (B) Find the marginal average cost at a production level of 250 units. (C) Use the results from parts (A) and (B) to estimate the average cost per frame if 251 frames are produced. The total cost (in dollars) of producing x food processors is C(x)=2300+70x-0.1x (A) Find the exact cost of producing the 51st food processor. (B) Use the marginal cost to approximate the cost of producing the 51st food processor. The total cost (in dollars) of manufacturing x auto body frames is C(x) 20,000+800x. (A) Find the average cost per unit if 80 frames are produced. (B) Find the marginal average cost at a production level of 80 units. (C) Use the results from parts (A) and (B) to estimate the average cost per frame if 81 frames are produced. The price p (in dollars) and the demand x for a particular clock radio are related by the equation x = 5000 - 50p. (A) Express the price p in terms of the demand x, and find the domain of this function. (B) Find the revenue R(x) from the sale of x clock radios. What is the domain of R? (C) Find the marginal revenue at a production level of 3300 clock radios. (D) Interpret R'(4800) = -92.00. The price-demand equation and the cost function for the production of table saws are given, respectively, by x = 6,000 -20p and C(x) = 112,000 + 70x, where x is the number of saws that can be sold at a price of Sp per saw and C(x) is the total cost (in dollars) of producing x saws. Complete parts (A) through (1) below. Let p = 22 - x and C(x) = 253 +5x, where x is the number of garden hoses that can be sold at a price of $p per unit and C(x) is the total cost (in dollars) of producing x garden hoses. (A) Express the revenue function in terms of x. (B) Graph the cost function and the revenue function in the same viewing window for 0 x484. Use approximation techniques to find the break-even points. Use the four-step process to find f'(x) and then find f'(1), f'(2), and f'(3). f(x) = 3x 6+x