Duplicate Question
The question on this page has been marked as a duplicate question.
Original Question
Cindy won 50.00 for getting first place in the science fair. She spent her winnings on robotics kits and chemistry sets. Each r...Asked by nuh uhhhhhhhh
Cindy won $50.00 for getting first place in the Science Fair. She spent her winnings on robotics kits and chemistry sets. Each robotics kit (y) costs $10.00, while each chemistry set costs $8.00 (x). Which of the following is a viable solution to the number of robotics kits and chemistry sets Cindy can purchase, assuming she spends her entire winnings?(1 point)
Responses
(−5,9)
left parenthesis negative 5 comma 9 right parenthesis
(0,5)
left parenthesis 0 comma 5 right parenthesis
(5,1)
left parenthesis 5 comma 1 right parenthesis
(3,2.6)
Responses
(−5,9)
left parenthesis negative 5 comma 9 right parenthesis
(0,5)
left parenthesis 0 comma 5 right parenthesis
(5,1)
left parenthesis 5 comma 1 right parenthesis
(3,2.6)
Answers
There are no human answers yet.
Answered by
GPT-4o mini
To determine which of the given responses represents a viable solution to the number of robotics kits (y) and chemistry sets (x) that Cindy can purchase, we need to set up a linear equation based on the amount she spent.
The equation representing Cindy's spending is:
\[
10y + 8x = 50
\]
where:
- \( y \) is the number of robotics kits,
- \( x \) is the number of chemistry sets,
- \( 10 \) is the cost of each robotics kit,
- \( 8 \) is the cost of each chemistry set, and
- \( 50 \) is the total amount she won.
Let's evaluate each option:
1. **(−5, 9)**:
\[
10(-5) + 8(9) = -50 + 72 = 22 \quad \text{(not viable)}
\]
2. **(0, 5)**:
\[
10(0) + 8(5) = 0 + 40 = 40 \quad \text{(not viable)}
\]
3. **(5, 1)**:
\[
10(5) + 8(1) = 50 + 8 = 58 \quad \text{(not viable)}
\]
4. **(3, 2.6)**:
\[
10(3) + 8(2.6) = 30 + 20.8 = 50.8 \quad \text{(not viable)}
\]
Since none of the provided pairs satisfy the equation \( 10y + 8x = 50 \) perfectly, it appears that none of the options are viable solutions under the interpretation that \( y \) and \( x \) must be non-negative integers.
However, if we relax the integer condition, we note that (3, 2.6) is close to meeting the equation closely. But please bear in mind that, typically, we might expect whole kit and set counts.
In conclusion, if strictly considering whole purchases, no solutions satisfy the original usage of \( 10y + 8x = 50 \). If the only requirement is that it should not exceed $50, then \( (3, 2.6) \) could be seen as the closest, although it technically exceeds.
The equation representing Cindy's spending is:
\[
10y + 8x = 50
\]
where:
- \( y \) is the number of robotics kits,
- \( x \) is the number of chemistry sets,
- \( 10 \) is the cost of each robotics kit,
- \( 8 \) is the cost of each chemistry set, and
- \( 50 \) is the total amount she won.
Let's evaluate each option:
1. **(−5, 9)**:
\[
10(-5) + 8(9) = -50 + 72 = 22 \quad \text{(not viable)}
\]
2. **(0, 5)**:
\[
10(0) + 8(5) = 0 + 40 = 40 \quad \text{(not viable)}
\]
3. **(5, 1)**:
\[
10(5) + 8(1) = 50 + 8 = 58 \quad \text{(not viable)}
\]
4. **(3, 2.6)**:
\[
10(3) + 8(2.6) = 30 + 20.8 = 50.8 \quad \text{(not viable)}
\]
Since none of the provided pairs satisfy the equation \( 10y + 8x = 50 \) perfectly, it appears that none of the options are viable solutions under the interpretation that \( y \) and \( x \) must be non-negative integers.
However, if we relax the integer condition, we note that (3, 2.6) is close to meeting the equation closely. But please bear in mind that, typically, we might expect whole kit and set counts.
In conclusion, if strictly considering whole purchases, no solutions satisfy the original usage of \( 10y + 8x = 50 \). If the only requirement is that it should not exceed $50, then \( (3, 2.6) \) could be seen as the closest, although it technically exceeds.
Submit Your Answer
We prioritize human answers over AI answers.
If you are human, and you can answer this question, please submit your answer.