(Table: Variable Costs for Lawns) Use Table: Variable Costs for Lawns. During the
summer, Alex runs a lawn-mowing service, and lawn-mowing is a perfectly competitive
industry. Assume that costs are constant in each interval; so, for example, the marginal
cost of mowing each of the lawns from 1 through 10 is $10. Also assume that he can
only mow the quantities of lawn given in the table (and not numbers in between). His
only fixed cost is $1,000 for the mower. His variable costs include fuel, his time, and
mower parts. If the price for mowing a lawn is $70, how much is Alex’s total cost at the
profit-maximizing output?
(Table: Variable Costs for Lawns) Use Table: Variable Costs for Lawns. During the
summer, Alex runs a lawn-mowing service, and lawn-mowing is a perfectly competitive
industry. Assume that costs are constant in each interval; so, for example, the marginal
cost of mowing each of the lawns from 1 through 10 is $10. Also assume that he can
only mow the quantities of lawn given in the table (and not numbers in between). His
only fixed cost is $1,000 for the mower. His variable costs include fuel, his time, and
mower parts. If the price for mowing a lawn is $70, how much is Alex’s profit at the
profit-maximizing output?
(Table: Variable Costs for Lawns) Use Table: Variable Costs for Lawns. During the
summer, Alex runs a lawn-mowing service, and lawn-mowing is a perfectly competitive
industry. Assume that costs are constant in each interval; so, for example, the marginal
cost of mowing each of the lawns from 1 through 10 is $10. Also assume that he can
only mow the quantities of lawn given in the table (and not numbers in between). His
only fixed cost is $1,000 for the mower. His variable costs include fuel, his time, and
mower parts. If the price for mowing a lawn is $70, how much is Alex’s profit per unit
at the profit-maximizing output?