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Kelia is solving an equation for x. Her second step is to multiply both sides of the equation by 4. Which equation is she solvi...Asked by kitkat
Kelia is solving an equation for x . Her second step is to multiply both sides of the equation by 4. Which equation is she solving?(1 point)
Responses
4 + x6 = 1
4 plus Start Fraction x over 6 End Fraction equals 1
6 + x4 = 1
6 plus Start Fraction x over 4 End Fraction equals 1
4 + 6x = 1
4 plus 6 x equals 1
6 + 4x = 1
Responses
4 + x6 = 1
4 plus Start Fraction x over 6 End Fraction equals 1
6 + x4 = 1
6 plus Start Fraction x over 4 End Fraction equals 1
4 + 6x = 1
4 plus 6 x equals 1
6 + 4x = 1
Answers
There are no human answers yet.
Answered by
GPT-4o mini
To determine which equation Kelia is solving, we need to identify an equation that would require multiplying both sides by 4 as a logical second step in solving for \( x \).
Let's analyze the given options:
1. \( 4 + \frac{x}{6} = 1 \)
- If we multiply both sides by 4, the left side becomes \( 4 \cdot (4 + \frac{x}{6}) \) which does not simplify nicely to isolate \( x \) easily.
2. \( 6 + \frac{x}{4} = 1 \)
- Multiplying by 4 here would give \( 4 \cdot (6 + \frac{x}{4}) \), which also complicates isolating \( x \).
3. \( 4 + 6x = 1 \)
- Multiplying by 4 yields \( 4(4 + 6x) = 16 + 24x \), which again complicates isolating \( x \).
4. \( 6 + 4x = 1 \)
- If we multiply both sides by 4, we get \( 4(6 + 4x) = 24 + 16x \), simplifying the expression on both sides but still not directly isolating \( x \).
Based on these observations, all options somewhat lead to manipulating equations without a straightforward path. However, multiplying equations involving fractions or expressions containing \( x \) generally signals an attempt to eliminate that fraction or isolate \( x \).
Among the choices, \( 4 + \frac{x}{6} = 1 \) stands out as an equation where multiplying through by 4 simplifies the fraction resulting:
\[
4 \left(4 + \frac{x}{6}\right) = 4 \cdot 1
\]
\[
16 + \frac{4x}{6} = 4
\]
Thus, it appears that the first equation \( 4 + \frac{x}{6} = 1 \) is the best candidate for an equation where multiplying by 4 is a relevant and useful step in solving it for \( x \).
So, the correct response is:
**4 + Start Fraction x over 6 End Fraction = 1**.
Let's analyze the given options:
1. \( 4 + \frac{x}{6} = 1 \)
- If we multiply both sides by 4, the left side becomes \( 4 \cdot (4 + \frac{x}{6}) \) which does not simplify nicely to isolate \( x \) easily.
2. \( 6 + \frac{x}{4} = 1 \)
- Multiplying by 4 here would give \( 4 \cdot (6 + \frac{x}{4}) \), which also complicates isolating \( x \).
3. \( 4 + 6x = 1 \)
- Multiplying by 4 yields \( 4(4 + 6x) = 16 + 24x \), which again complicates isolating \( x \).
4. \( 6 + 4x = 1 \)
- If we multiply both sides by 4, we get \( 4(6 + 4x) = 24 + 16x \), simplifying the expression on both sides but still not directly isolating \( x \).
Based on these observations, all options somewhat lead to manipulating equations without a straightforward path. However, multiplying equations involving fractions or expressions containing \( x \) generally signals an attempt to eliminate that fraction or isolate \( x \).
Among the choices, \( 4 + \frac{x}{6} = 1 \) stands out as an equation where multiplying through by 4 simplifies the fraction resulting:
\[
4 \left(4 + \frac{x}{6}\right) = 4 \cdot 1
\]
\[
16 + \frac{4x}{6} = 4
\]
Thus, it appears that the first equation \( 4 + \frac{x}{6} = 1 \) is the best candidate for an equation where multiplying by 4 is a relevant and useful step in solving it for \( x \).
So, the correct response is:
**4 + Start Fraction x over 6 End Fraction = 1**.
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