To solve the inequality that Artem wrote, \( 13n + 4.6 \leq 39.1 \), we will isolate \( n \).
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First, we subtract 4.6 from both sides:
\[ 13n \leq 39.1 - 4.6 \]
Simplifying the right side:
\[ 39.1 - 4.6 = 34.5 \]
So we have:
\[ 13n \leq 34.5 \]
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Next, we divide both sides by 13:
\[ n \leq \frac{34.5}{13} \]
Calculating the division:
\[ n \leq 2.6538461538461537 \approx 2.65 \]
Thus, in decimal or fractional form, we can say \( n \leq 2.65 \).
Since none of the options provided explicitly include this solution, we should check if any of the response options approximate or make sense in the context of the problem. However, based on the steps above, the calculation of the inequality should lead to the conclusion that the number \( n \) must be less than or equal to \( 2.65 \). If your selection is considering rounded numbers, ensure to reevaluate the options directly against this value.
Please make sure you check back on the setup or assumptions involved with the 39.1 condition or refer back to how \( n \) was defined. The equation \( 13n + 4.6\) does not seem correctly derived from the initial problem statement concerning \(4.6 + \frac{1}{3}n \leq 39.1\). Keep in mind that \(n\) typically could represent values dictated by context.
If you need any further assistance, feel free to ask!