Problem 59
Question
For the following exercises, solve for the desired quantity. A musician charges \(C(x)=64 x+20,000\) where \(x\) is the total number of attendees at the concert. The venue charges $$\$ 80$$ per ticket. After how many people buy tickets does the venue break even, and what is the value of the total tickets sold at that point?
Step-by-Step Solution
Verified Answer
The venue breaks even when 1,250 tickets are sold, generating \$100,000 in revenue.
1Step 1: Define Variables and Equations
Let \( x \) represent the number of attendees. The cost \( C(x) \) for the musician to perform is given by the equation \( C(x) = 64x + 20,000 \). The revenue from ticket sales is calculated as \( R(x) = 80x \). To find the break-even point, set the revenue equation equal to the cost equation to solve for \( x \).
2Step 2: Set Up the Break-Even Equation
Set the cost equation equal to the revenue equation: \[ 80x = 64x + 20,000 \].This equation represents the point where the income from ticket sales exactly covers the musician's fees.
3Step 3: Solve for x
To find \( x \), the number of attendees needed to break even, solve the equation from Step 2: \[ 80x = 64x + 20,000 \]. Subtract \( 64x \) from both sides to isolate terms with \( x \): \[ 16x = 20,000 \]. Then, divide both sides by 16: \[ x = \frac{20,000}{16} = 1,250 \].
4Step 4: Calculate Total Revenue
At \( x = 1,250 \), calculate the total revenue to verify the break-even point: \( R(x) = 80 \times 1,250 \). Upon calculation, we get \( R(1,250) = 100,000 \). Thus, the total revenue is \$100,000, confirming that the venue breaks even with 1,250 attendees.
Key Concepts
Cost EquationRevenue EquationSolve for xTicket Pricing
Cost Equation
When analyzing a break-even problem, the cost equation helps determine total expenses. In this exercise, the cost equation is given as \( C(x) = 64x + 20,000 \). This equation represents:
- The fixed cost: \( 20,000 \), which is constant regardless of the number of attendees. This amount could include expenses such as venue hire, equipment, and other overhead costs.
- The variable cost: \( 64x \), which depends on the number of attendees \( x \). In this case, it can include additional expenses like production or staffing that increase with the number of concert-goers.
Revenue Equation
The revenue equation calculates the total income generated from sales. In this context, the equation is \( R(x) = 80x \). Breaking down what this represents:
- Ticket price: \( \$80 \) per ticket is the price set by the venue. This is the income received for each attendee.
- Total revenue: \( 80x \) signifies the overall earnings when \( x \) tickets are sold.
Solve for x
To find out when the venue breaks even, you need to solve the equation where income equals expense. This is done by equating the cost and revenue equations: \[ 80x = 64x + 20,000 \] Here's a simple breakdown of solving for \( x \):
- Subtract \( 64x \) from each side to get terms with \( x \) on one side: \( 16x = 20,000 \).
- Divide both sides by 16 to isolate \( x \): \( x = \frac{20,000}{16} = 1,250 \).
Ticket Pricing
Ticket pricing is a critical component that affects both revenue and the break-even point. In this scenario:
- Each ticket is priced at \( \$80 \).
- The higher the ticket price, the fewer attendees required to break even.
- Conversely, a lower ticket price demands more attendees to reach the same financial equilibrium.
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