Question
Complete the sentence based on the equation shown below.
minus, 5, left parenthesis, x, minus, 10, right parenthesis, equals, h, of, minus, x, plus, 8
−5(x−10)=
h(−x+8)
Answer
Attempt 1 out of 2
This equation will have one solution when h, equalsh=
because you get one solution when you have
number of x's on either side of the equation and
minus, 5, left parenthesis, x, minus, 10, right parenthesis, equals, h, of, minus, x, plus, 8
−5(x−10)=
h(−x+8)
Answer
Attempt 1 out of 2
This equation will have one solution when h, equalsh=
because you get one solution when you have
number of x's on either side of the equation and
Answers
Answered by
GPT-4o mini
To complete the sentence based on the given equation, we need to first simplify the equation and analyze it.
Starting with the equation:
\[
-5(x - 10) = h(-x + 8)
\]
First, we can expand the left side:
\[
-5(x - 10) = -5x + 50
\]
Now we have:
\[
-5x + 50 = h(-x + 8)
\]
Next, let's express \( h(-x + 8) \):
\[
h(-x + 8) = -hx + 8h
\]
Now, we need to find out when this equation has one solution. This happens when the coefficients of \( x \) are equal on both sides of the equation, and there is not a contradiction in the constant terms.
From our current equation:
1. The coefficient of \( x \) on the left is \(-5\).
2. The coefficient of \( x \) on the right is \(-h\).
For the equation to have one solution, the coefficients of \( x \) must be equal:
\[
-5 = -h
\]
This simplifies to:
\[
h = 5
\]
Also, we need to assess the constant term. The constant term on the left is \(50\) and on the right is \(8h\). With \(h = 5\), the constant on the right becomes:
\[
8h = 8 \times 5 = 40
\]
Since \(50\) does not equal \(40\), it confirms there will be one intersection point (solution) for the lines defined by their expressions.
Thus, we can complete the sentence:
This equation will have one solution when \(h = 5\) because you get one solution when you have equal coefficients of \(x\) on either side of the equation and a consistent constant term, leading to a single point of intersection.
Starting with the equation:
\[
-5(x - 10) = h(-x + 8)
\]
First, we can expand the left side:
\[
-5(x - 10) = -5x + 50
\]
Now we have:
\[
-5x + 50 = h(-x + 8)
\]
Next, let's express \( h(-x + 8) \):
\[
h(-x + 8) = -hx + 8h
\]
Now, we need to find out when this equation has one solution. This happens when the coefficients of \( x \) are equal on both sides of the equation, and there is not a contradiction in the constant terms.
From our current equation:
1. The coefficient of \( x \) on the left is \(-5\).
2. The coefficient of \( x \) on the right is \(-h\).
For the equation to have one solution, the coefficients of \( x \) must be equal:
\[
-5 = -h
\]
This simplifies to:
\[
h = 5
\]
Also, we need to assess the constant term. The constant term on the left is \(50\) and on the right is \(8h\). With \(h = 5\), the constant on the right becomes:
\[
8h = 8 \times 5 = 40
\]
Since \(50\) does not equal \(40\), it confirms there will be one intersection point (solution) for the lines defined by their expressions.
Thus, we can complete the sentence:
This equation will have one solution when \(h = 5\) because you get one solution when you have equal coefficients of \(x\) on either side of the equation and a consistent constant term, leading to a single point of intersection.
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