A vegetable stand sells p pumpkins for $5.00 each and s squashes for $3.00 each. On Monday, the stand sold 6 more squashes than pumpkins and made a total of $98.00. Which system of equations can be used to determine the number of pumpkins and squashes sold?Choose 1 answer:(A) 3p+5s=98s=p+6(B) 3p+5s=98p=s+6(C) 5p+3s=98s=p+6(D) 5p+3s=98p=s+6
Q. A vegetable stand sells p pumpkins for $5.00 each and s squashes for $3.00 each. On Monday, the stand sold 6 more squashes than pumpkins and made a total of $98.00. Which system of equations can be used to determine the number of pumpkins and squashes sold?Choose 1 answer:(A) 3p+5s=98s=p+6(B) 3p+5s=98p=s+6(C) 5p+3s=98s=p+6(D) 5p+3s=98p=s+6
Identify Equations: question_prompt: What system of equations can be used to determine the number of pumpkins ( extit{p}) and squashes ( extit{s}) sold if the stand sold 6 more squashes than pumpkins and made a total of $98.00?
Write Total Money Equation: Step 1: Let's write the equation for the total money made from selling pumpkins and squashes. Pumpkins cost $5 each, and squashes cost $3 each. So, the equation is:5p+3s=98
Establish Relationship Equation: Step 2: Now, we know that the stand sold 6 more squashes than pumpkins. So, the equation for the relationship between the number of squashes and pumpkins sold is:s=p+6
Compare with Options: Step 3: We need to check which answer choice matches our equations. Let's look at the options:(A) 3p+5s=98, s=p+6(B) 3p+5s=98, p=s+6(C) 5p+3s=98, s=p+6(D) 5p+3s=98, $p = s + \(6\)
Compare with Options: Step \(3\): We need to check which answer choice matches our equations. Let's look at the options:\(\newline\)(A) \(3p + 5s = 98\), \(s = p + 6\)\(\newline\)(B) \(3p + 5s = 98\), \(p = s + 6\)\(\newline\)(C) \(5p + 3s = 98\), \(s = p + 6\)\(\newline\)(D) \(5p + 3s = 98\), \(p = s + 6\) Step \(4\): By comparing the equations we wrote with the options, we can see that option (C) has the same equations as we derived:\(\newline\)\(5p + 3s = 98\), \(s = p + 6\)
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