The first step in solving the equation \( 7(x - 8) = 49 \) for \( x \) is to divide both sides by 7. This simplifies the equation and allows you to isolate the term containing \( x \).
So the correct response is: Divide both sides by 7.
Responses
Divide both sides by 7.
Divide both sides by 7.
Multiply both sides by 7.
Multiply both sides by 7.
Divide only the left side by 7.
Divide only the left side by 7.
Add 8 to both sides.
Add 8 to both sides.
9 answers
The first step in solving the equation \( 7(x - 8) = 49 \) for \( x \) is to divide both sides by 7. This simplifies the equation and allows you to isolate the term containing \( x \).
So the correct response is: Divide both sides by 7.
To solve the equation \( -3(y + 6) = 21 \), the first step would typically be to divide both sides by -3, which simplifies to \( y + 6 = -7 \).
Following this, the second step is to subtract 6 from both sides to isolate \( y \).
So the correct response is: Subtract 6 from both sides.
To find which equation allows us to first divide both sides by 6 and then add 8 to both sides, we can analyze each equation:
\(6x - 8 = 48\):
\(8(x - 6) = 48\):
\(6(x - 8) = 48\):
\(6(x + 8) = 48\):
Based on this analysis, the equation that allows you to first divide by 6 and then add 8 to both sides is:
\(6(x - 8) = 48\).
To find the equation for which the order of steps allows you to first divide both sides by 2 and then subtract 10 from both sides, let's analyze each option:
\(2(x + 10) = 16\):
\(2x + 10 = 16\):
\(10(x + 2) = 16\):
\(2(x - 10) = 16\):
The only equation that allows you to first divide both sides by 2 and then subtract 10 is:
\(2(x + 10) = 16\).
To solve the equation \( -4(z + 12) = 36 \) for \( z \), follow these steps:
Divide both sides by -4: \[ z + 12 = \frac{36}{-4} \] \[ z + 12 = -9 \]
Subtract 12 from both sides: \[ z = -9 - 12 \] \[ z = -21 \]
Thus, the solution for \( z \) is −21.