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A manufacturer has a monthly fixed cost of \(\$ 40,000\) and a production cost of \(\$ 8\) for each unit produced. The product sells for \$12/unit. a. What is the cost function? b. What is the revenue function? c. What is the profit function? d. Compute the profit (loss) corresponding to production levels of 8000 and 12,000 units.

Short Answer

Expert verified
a. The cost function is \(C(x) = 40000 + 8x\). b. The revenue function is \(R(x) = 12x\). c. The profit function is \(P(x) = 4x - 40000\). d. For 8000 units, the profit (loss) is a loss of \(\$8,000\), and for 12,000 units, the profit is \(\$8,000\).

Step by step solution

01

Calculate the cost function

The cost function, \(C(x)\), is the fixed cost plus the variable cost per unit multiplied by the number of units produced, which is given as: \(C(x) = fixed\, cost + (cost\, per\, unit \times units\, produced)\). Using the given data, fixed cost is \(\$40,000\) and the production cost per unit is \(\$8\). So, the cost function becomes: \[C(x) = 40000 + 8x\]
02

Calculate the revenue function

The revenue function, \(R(x)\), is the selling price per unit multiplied by the number of units sold. As given, the selling price per unit is \(\$12\), so the revenue function is: \[R(x) = 12x\]
03

Calculate the profit function

The profit function, \(P(x)\), is the difference between the revenue function and the cost function, so we have: \[P(x) = R(x) - C(x)\] Plugging in the cost and revenue functions, we get: \[P(x) = (12x) - (40000 + 8x)\] Now, let's simplify the profit function: \[P(x) = 12x - 40000 - 8x = 4x - 40000\] So, the profit function is \(P(x) = 4x - 40000\).
04

Calculate the profit (loss) for given production levels

Now, we will calculate the profit (loss) for the given production levels of 8000 and 12,000 units using the profit function. For 8000 units, \[P(8000) = 4(8000) - 40000 = 32000 - 40000\] \[P(8000) = -8000\] For 12,000 units, \[P(12000) = 4(12000) - 40000 = 48000 - 40000\] \[P(12000) = 8000\] Thus, the profit (loss) corresponding to production levels of 8000 units is a loss of \(\$8,000\), and for 12,000 units, there is a profit of \(\$8,000\).

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Key Concepts

These are the key concepts you need to understand to accurately answer the question.

Cost Function
The cost function is a fundamental concept that helps businesses understand their expenses. It's particularly useful for predicting how costs change with shifts in production. The cost function, often denoted by \(C(x)\), integrates both fixed costs and variable costs.

Fixed costs are those expenses that do not change regardless of how many goods a business produces. In the given exercise, the fixed cost is \(\\(40,000\). These are unavoidable costs like rent or utilities. They stay the same whether you produce no units at all or thousands.

Variable costs, on the other hand, are expenses that vary directly with the level of production. For each unit produced, there is a cost, which in this case is \(\\)8\) per unit. By multiplying the number of units produced by this variable cost, you get the total variable cost.

Therefore, the total cost function can be expressed as:
  • \(C(x) = \text{fixed cost} + \text{(cost per unit)} \times x\)
Plugging the values from the exercise, the function is: \(C(x) = 40000 + 8x\). This formula allows you to calculate total costs for any level of production by simply substituting \(x\), the number of units.
Revenue Function
The revenue function is crucial for understanding how much income a company generates from selling its products. The basic premise is simple: revenue increases with each unit sold at the designated selling price. The revenue function, often symbolized by \(R(x)\), multiplies the price per product by the number of products sold.

In the exercise, every unit is sold for \(\$12\). Thus, the revenue for selling \(x\) units can be calculated as follows:
  • \(R(x) = \text{price per unit} \times x\)
This is mirrored in the equation \(R(x) = 12x\). Essentially, if you know how many units are sold, you can substitute that number in the formula to determine the total revenue.

This function helps businesses to project their income over a period and evaluate their sales strategies. It's one half of the calculation needed to find out the overall profitability of a company.
Break-even Point
The break-even point is a pivotal concept in business and economics. It denotes the level of production and sales where total revenues match total costs, resulting in neither profit nor loss. At this point, a business is covering all its costs but not making any extra gain.

The break-even analysis involves using both the cost and revenue functions. You set them equal to each other and solve for \(x\), the number of units where revenues equal costs. For our exercise, using the equations \(C(x) = 40000 + 8x\) and \(R(x) = 12x\), the break-even point is determined by:
  • Setting \(R(x) = C(x)\)
  • \(12x = 40000 + 8x\)
Solving this gives:
  • \(12x - 8x = 40000\)
  • \(4x = 40000\)
  • \(x = 10000\)
Therefore, when 10,000 units are produced and sold, the company breaks even. Understanding the break-even point helps in decision-making, such as determining the minimum sales required to avoid losses and planning for profitability.

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